Telescopic stretcher with digital X-ray photography detection function and detection method thereof

Abstract

The invention provides a telescopic stretcher with a digital X-ray photography detection function and a detection method thereof. The telescopic stretcher with the digital X-ray photography detection function comprises a telescopic stretcher assembly and a digital X-ray photography detection assembly. A stretcher surface is formed on the telescopic stretcher assembly, and the digital X-ray photography detection assembly is used for detecting a patient on the stretcher surface; the digital X-ray photography detection assembly comprises an X-ray light source part and a flat plate detection part, the transmitting end of the X-ray light source part is arranged above the stretcher face, the detection end of the flat plate detection part is arranged on the side, away from the stretcher face, of the telescopic stretcher assembly, and the transmitting end of the X-ray light source part and the detection end of the flat plate detection part are oppositely arranged. Therefore, a patient on the stretcher surface can be detected. The telescopic stretcher with the digital X-ray radiography detection function can effectively reduce the risk that a patient is not treated in time, so that sequelae are left, and even a death phenomenon occurs.

Description

Technical Field

[0001] This disclosure relates to the technical field of telescopic stretchers with digital X-ray imaging detection function, and in particular to a telescopic stretcher with digital X-ray imaging detection function and its detection method. Background Technology

[0002] Portable telescopic stretchers, with their lightweight, portability, high load-bearing capacity, and rapid deployment, have become an indispensable tool in modern emergency rescue and medical transport. They not only improve emergency rescue efficiency but also ensure patient safety by reducing the risk of secondary injury. They play an irreplaceable role in many fields such as medical care, fire fighting, military, outdoor activities, sports events, hazardous operations, tourist attractions, and exhibition accidents, as exemplified by the existing technology patent CN221770606U.

[0003] However, while portable telescopic stretchers can enable rapid patient transport in the emergency medical system, the existing process suffers from a critical time loss problem: due to the information gap between pre-hospital emergency care and in-hospital treatment, the hospital cannot obtain the patient's vital signs data and trauma assessment information in real time during the transport from the scene to the hospital. This prevents the medical team from activating targeted treatment plans in advance. Digital X-ray imaging is only conducted after the patient arrives at the hospital to confirm the injury and treatment plan. This process inevitably encroaches on the optimal treatment window, causing the patient to miss the best treatment window and making the patient prone to sequelae or even death due to untimely treatment. Summary of the Invention

[0004] The purpose of this disclosure is to overcome the shortcomings of the prior art and provide a telescopic stretcher with digital X-ray imaging detection function and its detection method to effectively reduce the risk of patients suffering from sequelae or even death due to untimely treatment.

[0005] The purpose of this disclosure is achieved through the following technical solution:

[0006] A telescopic stretcher with digital X-ray imaging detection function includes a telescopic stretcher assembly and a digital X-ray imaging detection assembly;

[0007] The telescopic stretcher assembly has a stretcher surface for supporting and transporting patients; the digital X-ray imaging detection assembly is used to perform detection operations on the patients on the stretcher surface.

[0008] The digital X-ray imaging detection assembly includes an X-ray source and a flat plate detection assembly. The emitting end of the X-ray source is located above the stretcher surface, and the detection end of the flat plate detection assembly is located on the side of the telescopic stretcher assembly away from the stretcher surface. The emitting end of the X-ray source and the detection end of the flat plate detection assembly are arranged opposite to each other to perform detection operations on the patient on the stretcher surface.

[0009] In one embodiment, the X-ray source includes an X-ray source body and a first sliding frame. The emitting end of the X-ray source is disposed on the X-ray source body. The sliding end of the first sliding frame is slidably connected to the telescopic stretcher assembly. The mounting end of the first sliding frame is located above the stretcher surface and is disposed opposite to the stretcher surface. The X-ray source body is mounted on the mounting end of the first sliding frame, and the X-ray source body is disposed opposite to and spaced apart from the stretcher surface to form a clearance gap between the X-ray source body and the stretcher surface. The emitting end of the X-ray source body is disposed in the direction of the stretcher surface.

[0010] In one embodiment, the first sliding frame includes a first sliding part and a first mounting part. The first sliding part is rotatably connected to the first mounting part. The sliding end of the first sliding frame is disposed on the first sliding part. The first sliding part is slidably connected to the telescopic stretcher assembly. The mounting end of the first sliding frame is disposed on the first mounting part. The X-ray source body is mounted on the first mounting part.

[0011] In one embodiment, the flat panel detection component includes a flat panel detection body and a second sliding frame. The detection end of the flat panel detection component is disposed on the flat panel detection body. The second sliding frame is located on the side of the digital X-ray imaging detection assembly facing away from the stretcher surface. The sliding end of the second sliding frame is slidably connected to the telescopic stretcher assembly. The flat panel detection body is mounted on the side of the second sliding frame facing the stretcher surface. The signal receiving end of the flat panel detection body is disposed facing the stretcher surface and is disposed opposite to the emitting end of the X-ray source body.

[0012] In one embodiment, the second sliding frame includes a second sliding part and a second mounting part. The second sliding part is fixedly connected to the second mounting part. The sliding end of the second sliding frame is disposed on the second sliding part. The second sliding part is slidably connected to the telescopic stretcher assembly. The mounting end of the second sliding frame is disposed on the second mounting part. The flat plate detection body is mounted on the second mounting part.

[0013] In one embodiment, the telescopic stretcher assembly includes a telescopic stretcher body and a frame, the stretcher surface is formed on one side of the top of the telescopic stretcher body, and the frame is mounted and fixed to one side of the telescopic stretcher body opposite to the stretcher surface, the frame being used to support the telescopic stretcher body.

[0014] In one embodiment, the telescopic stretcher body includes a main body and two telescopic parts. The two telescopic parts are respectively disposed at both ends of the main body. Each end of the main body has a guide hole, and each of the two telescopic parts has a guide post disposed opposite to the guide hole. The guide post of each telescopic part is limited to the corresponding guide hole and is slidably connected to the hole wall of the guide hole. The frame is fixedly connected to the main body to support the main body.

[0015] In one embodiment, the telescopic stretcher assembly further includes a slide rail, which is mounted and fixed on the frame. The slide rail has a sliding groove, and a first sliding limiting flange is formed on one side of the first sliding portion adjacent to the sliding groove. The first sliding limiting flange is adapted to the sliding groove, and the first sliding limiting flange is slidably limited within the sliding groove.

[0016] In one embodiment, a second sliding limiting flange is formed on one side of the second sliding portion adjacent to the sliding groove. The second sliding limiting flange is adapted to the sliding groove, and the second sliding limiting flange is slidably limited within the sliding groove.

[0017] A method for detecting a telescopic stretcher with digital X-ray imaging function, wherein the telescopic stretcher with digital X-ray imaging function described in any of the above embodiments is used to detect a patient, and the steps of the method for detecting the telescopic stretcher with digital X-ray imaging function include:

[0018] Place the patient on the stretcher surface of the telescopic stretcher assembly;

[0019] The emitting end of the X-ray source is positioned above the stretcher surface;

[0020] The detection end of the flat plate detection component is located on the side of the telescopic stretcher assembly away from the stretcher surface, and the emitting end of the X-ray source component is positioned opposite to the detection end of the flat plate detection component.

[0021] The X-ray source is turned on, and the flat panel detector is turned on simultaneously to perform a detection operation on the patient's body.

[0022] Compared with the prior art, this disclosure has at least the following advantages:

[0023] The aforementioned telescopic stretcher with digital X-ray imaging detection function has a stretcher surface formed by the telescopic stretcher assembly, which is used to support and transport patients. The digital X-ray imaging detection assembly is used to perform detection operations on the patient on the stretcher surface. The digital X-ray imaging detection assembly includes an X-ray source and a flat panel detection unit. The emitting end of the X-ray source is located above the stretcher surface, and the detection end of the flat panel detection unit is located on the side of the telescopic stretcher assembly opposite to the stretcher surface. The emitting end of the X-ray source and the detection end of the flat panel detection unit are arranged opposite each other to perform detection operations on the patient on the stretcher surface. When medical staff place the patient in a preset position on the stretcher surface, the X-ray source and flat panel detection unit are activated, and X-rays are emitted. Once activated, the linear light source emits X-rays towards the patient. The activated flat panel detector quickly and accurately receives the X-rays that have penetrated the patient and converts them into high-definition images. This allows medical staff to diagnose the patient's injuries using the high-definition images generated by the digital X-ray imaging detection component during the rapid transfer of the patient via a telescopic stretcher equipped with digital X-ray imaging detection. The diagnosis results are then reported to the hospital's medical team in real time, enabling the team to prepare targeted treatment plans in advance. This saves valuable time for the patient's treatment and significantly reduces the risk of long-term sequelae or even death due to delayed treatment. Attached Figure Description

[0024] To more clearly illustrate the technical solutions of the embodiments of this disclosure, the accompanying drawings used in the embodiments will be briefly described below. It should be understood that the following drawings only show some embodiments of this disclosure and should not be regarded as a limitation of the scope. For those skilled in the art, other related drawings can be obtained based on these drawings without creative effort.

[0025] Figure 1 This is a schematic diagram of the unfolded state of a telescopic stretcher with digital X-ray imaging detection function according to an embodiment.

[0026] Figure 2 for Figure 1 A schematic diagram of the retractable stretcher with digital X-ray imaging detection function in its stowed state;

[0027] Figure 3 for Figure 1 A partial structural schematic diagram of a telescopic stretcher with digital X-ray imaging detection function is shown.

[0028] Figure 4 for Figure 1 Another partial structural diagram of a telescopic stretcher with digital X-ray imaging detection function is shown.

[0029] Figure 5 for Figure 4 A partially enlarged schematic diagram of a telescopic stretcher with digital X-ray imaging detection function is shown.

[0030] Figure 6 for Figure 4 Another enlarged schematic diagram of a telescopic stretcher with digital X-ray imaging detection function is shown.

[0031] Figure 7 for Figure 1 An exploded view of a portion of the structure of a telescopic stretcher with digital X-ray imaging detection capabilities;

[0032] Figure 8 for Figure 1 Another partial structural schematic diagram of a telescopic stretcher with digital X-ray imaging detection function is shown.

[0033] Figure 9 for Figure 1 Another partial structural schematic diagram of a telescopic stretcher with digital X-ray imaging detection function is shown.

[0034] Figure 10 for Figure 1 Another partial structural schematic diagram of a telescopic stretcher with digital X-ray imaging detection function is shown.

[0035] Figure 11 A schematic diagram of the inspection steps for a telescopic stretcher with digital X-ray imaging capabilities;

[0036] Figure 12 A schematic diagram of the structural model of a telescopic stretcher with digital X-ray imaging detection capabilities;

[0037] Figure 13 This is a schematic diagram of the X-ray source body of a telescopic stretcher with digital X-ray imaging and inspection capabilities.

[0038] Reference numerals: 10. Telescopic stretcher with digital X-ray imaging function; 100. Telescopic stretcher assembly; 110. Stretcher surface; 120. Telescopic stretcher body; 121. Main body; 1211. Guide hole; 122. Telescopic part; 1221. Guide column; 130. Frame; 131. Handle; 140. Slide rail; 141. Sliding groove; 150. Caster wheel; 160. Pushing part; 200. Digital X-ray imaging assembly; 210. X-ray source; 211. X-ray source body; 212. First sliding frame; 2121. First sliding part ; 21211, First sliding limit flange; 2122, First mounting part; 21221, Connecting hole; 2123, Positioning rod; 2124, Connecting rod; 2125, Support rod; 2126, First locking adjustment component; 213, Fixing plate; 2131, Hook groove; 220, Flat plate detection component; 221, Flat plate detection body; 222, Second sliding frame; 2221, Second sliding part; 22211, Second sliding limit flange; 2222, Second mounting part; 22221, Mounting limit groove; 22222, Heat dissipation hole; 2223, Second locking adjustment component. Detailed Implementation

[0039] To facilitate understanding of this disclosure, a more complete description will be given below with reference to the accompanying drawings, which illustrate preferred embodiments of the present disclosure. However, this disclosure can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and complete understanding of the disclosure.

[0040] It should be noted that when an element is referred to as being "fixed to" another element, it can be directly attached to the other element or there may be an intervening element. When an element is referred to as being "connected to" another element, it can be directly connected to the other element or there may be an intervening element. The terms "vertical," "horizontal," "left," "right," and similar expressions used herein are for illustrative purposes only and do not represent the only possible implementation.

[0041] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this disclosure belongs. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of this disclosure. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0042] To better understand the technical solutions and beneficial effects of this disclosure, the following detailed description is provided in conjunction with specific embodiments:

[0043] like Figures 1 to 13 As shown, a telescopic stretcher 10 with digital X-ray imaging detection function in one embodiment includes a telescopic stretcher assembly 100 and a digital X-ray imaging detection assembly 200; the telescopic stretcher assembly 100 has a stretcher surface 110 for carrying and transporting patients; the digital X-ray imaging detection assembly 200 is used to perform detection operations on the patient on the stretcher surface 110; the digital X-ray imaging detection assembly 200 includes an X-ray source 210 and a flat plate detection component 220, the emitting end of the X-ray source 210 is located above the stretcher surface 110, and the detection end of the flat plate detection component 220 is located on the side of the telescopic stretcher assembly 100 away from the stretcher surface 110. The emitting end of the X-ray source 210 and the detection end of the flat plate detection component 220 are arranged opposite to each other to perform detection operations on the patient on the stretcher surface 110. When medical personnel place the patient on the stretcher surface 110... When the patient is positioned at the preset location on the stretcher surface 110, the X-ray source 210 and the flat panel detector 220 will be activated. After the X-ray source 210 is activated, it will emit X-rays towards the patient. The activated flat panel detector 220 will quickly and accurately receive the X-rays that have penetrated the patient and convert them into high-definition images. This allows medical staff to diagnose the patient's injuries using the high-definition images generated by the digital X-ray imaging detection component 200 during the rapid transfer of the patient using the telescopic stretcher 10 with digital X-ray imaging detection function. The diagnosis results can be reported to the hospital's medical team in real time, enabling the medical team to prepare targeted treatment plans in advance based on the diagnosis results. This saves time for the patient's treatment and greatly reduces the risk of sequelae or even death due to delayed treatment.

[0044] The aforementioned telescopic stretcher 10 with digital X-ray imaging detection function has a stretcher surface 110 formed by the telescopic stretcher assembly 100, which is used to carry and transport patients. The digital X-ray imaging detection assembly 200 is used to perform detection operations on the patients on the stretcher surface 110. The digital X-ray imaging detection assembly 200 includes an X-ray source 210 and a flat panel detection assembly 220. The emitting end of the X-ray source 210 is located above the stretcher surface 110, and the detection end of the flat panel detection assembly 220 is located on the side of the telescopic stretcher assembly 100 away from the stretcher surface 110. The emitting end of the X-ray source 210 and the detection end of the flat panel detection assembly 220 are arranged opposite each other to perform detection operations on the patients on the stretcher surface 110. When medical personnel place the patient in a preset position on the stretcher surface 110, The X-ray source 210 and the flat panel detector 220 will be activated. After the X-ray source 210 is activated, it will emit X-rays towards the patient. The activated flat panel detector 220 will quickly and accurately receive the X-rays after they penetrate the patient and convert them into high-definition images. This allows medical staff to diagnose the patient's injuries using the high-definition images generated by the digital X-ray imaging detector 200 during the rapid transfer of the patient using the telescopic stretcher 10 with digital X-ray imaging detection function. The diagnosis results can be reported to the hospital's medical team in real time, enabling the medical team to prepare targeted treatment plans in advance based on the diagnosis results. This saves time for the patient's treatment and greatly reduces the risk of sequelae or even death due to delayed treatment.

[0045] In another embodiment, the X-ray source 210 and the flat panel inspection device 220 are inspected by hand.

[0046] like Figures 1 to 3As shown, in one embodiment, the X-ray source 210 includes an X-ray source body 211 and a first sliding frame 212. The emitting end of the X-ray source 210 is disposed on the X-ray source body 211. The sliding end of the first sliding frame 212 is slidably connected to the telescopic stretcher assembly 100. The mounting end of the first sliding frame 212 is located above the stretcher surface 110 and is disposed opposite to the stretcher surface 110. The X-ray source body 211 is mounted on the mounting end of the first sliding frame 212, and the X-ray source body 211 is disposed opposite to and spaced apart from the stretcher surface 110, so that a clearance gap is formed between the X-ray source body 211 and the stretcher surface 110. This not only facilitates medical personnel in placing patients on the stretcher surface 110, but also avoids... To prevent collisions between the patient and the X-ray source body 211 during the placement of the patient on the stretcher surface 110, thus reducing the risk of secondary injury to the patient, the emitting end of the X-ray source body 211 is positioned towards the stretcher surface 110. This allows the first sliding frame 212 to move relative to the telescopic stretcher assembly 100 when the medical staff moves the first sliding frame 212. This enables the medical staff to perform whole-body examinations on the patient by moving the X-ray source body 211 relative to the telescopic stretcher assembly 100, thereby greatly improving the ease of use and accuracy of the telescopic stretcher 10 with digital X-ray imaging function.

[0047] like Figures 1 to 9As shown, in one embodiment, the first sliding frame 212 includes a first sliding portion 2121 and a first mounting portion 2122. The first sliding portion 2121 is rotatably connected to the first mounting portion 2122. The sliding end of the first sliding frame 212 is disposed on the first sliding portion 2121. The first sliding portion 2121 is slidably connected to the telescopic stretcher assembly 100. The mounting end of the first sliding frame 212 is disposed on the first mounting portion 2122. The X-ray source body 211 is mounted on the first mounting portion 2122, so that when medical personnel move the first mounting portion 2122 relative to the telescopic stretcher assembly 100, the first mounting portion 2122 can move relative to the telescopic stretcher assembly 100 via the first sliding portion 2121, allowing the first sliding frame 212 to move relative to the telescopic stretcher assembly 100. This, in turn, allows the first sliding frame 212 to drive the X-ray source body 211 relative to the telescopic stretcher assembly. The telescopic stretcher assembly 100 allows medical personnel to perform whole-body examinations on patients by moving the X-ray source body 211 relative to the telescopic stretcher assembly 100. Simultaneously, when it is necessary to store the telescopic stretcher 10 with digital X-ray imaging capabilities, medical personnel can rotate the first mounting part 2122 relative to the first sliding part 2121 until the first mounting part 2122 is parallel to the stretcher surface 110 of the telescopic stretcher assembly 100. Then, the first mounting part 2122 is moved to a preset position on the telescopic stretcher assembly 100 via the first sliding part 2121, allowing the first sliding frame 212 to be stored within the telescopic stretcher assembly 100. This significantly reduces the storage volume of the telescopic stretcher 10 with digital X-ray imaging capabilities, thereby greatly improving the ease of storage and carrying.

[0048] like Figures 3 to 9 As shown, in one embodiment, a positioning rod 2123 is fixed to the rotating end of the first sliding part 2121. The positioning rod 2123 is used to abut against and limit the first mounting part 2122 when the first mounting part 2122 rotates relative to the first sliding part 2121 to be perpendicular to the stretcher surface 110, so that the first mounting part 2122 can be positioned at a preset position of the telescopic stretcher assembly 100 by the positioning rod 2123, so that the X-ray source body 211 can be perpendicular to the stretcher surface 110, thereby allowing the X-ray source body 211 to irradiate the stretcher surface 110 perpendicularly and relatively obliquely. Perpendicular irradiation can effectively reduce the distance of X-rays to the stretcher surface 110, reduce the scattering effect of X-rays, thereby improving the resolution of digital X-ray imaging and greatly improving the detection accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0049] like Figures 3 to 10As shown, in one embodiment, the first sliding frame 212 further includes a connecting rod 2124. A connecting hole 21221 is formed at one end of the first mounting portion 2122 adjacent to the first sliding portion 2121. Both ends of the connecting rod 2124 are fixed to the rotating end of the first sliding portion 2121. The connecting rod 2124 passes through the connecting hole 21221 and is slidably connected to the hole wall of the connecting hole 21221, so that the first mounting portion 2122 can rotate relative to the first sliding portion 2121.

[0050] like Figures 1 to 3 As shown, in one embodiment, the X-ray source body 211 is detachably mounted on the mounting end of the first sliding frame 212, which not only facilitates the maintenance and replacement of the X-ray source body 211, but also greatly improves the storage convenience of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0051] like Figures 3 to 10 As shown, in one embodiment, there are two first sliding frames 212, which are arranged opposite each other and spaced apart. The X-ray source body 211 is located between the two first sliding frames 212. The X-ray source component 210 also includes a fixing plate 213, which is fixedly mounted on the top of the X-ray source body 211. Both ends of the fixing plate 213 have hook grooves 2131. The mounting ends of the two first sliding frames 212 each have support rods 2125 that are adapted to the hook grooves 2131. The hook grooves 2131 at both ends of the fixing plate 213 respectively engage with the support rods 2125 fixed to the two first sliding frames 212. 25, so that the X-ray source body 211 is fixed to the mounting end of the two first sliding frames 212 by the fixing plate 213. This not only reduces the difficulty of installation and disassembly between the X-ray source body 211 and the first sliding frame 212, but also allows the two first sliding frames 212 to jointly support the X-ray source body 211, thereby improving the support capacity of the first sliding frame 212. This allows the first sliding frame 212 to reliably support the X-ray source body 211 at the preset position of the telescopic stretcher assembly 100, thereby greatly improving the stability and accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0052] like Figures 1 to 3 As shown, in one embodiment, the first sliding frame 212 is an aluminum alloy sliding frame or a stainless steel sliding frame, so that the first sliding frame 212 can have better structural strength and stability in use, and at the same time, it can also have better corrosion resistance.

[0053] like Figures 1 to 3As shown, in one embodiment, the X-ray source body 211 is a pulsed microfocus X-ray source, which is not only suitable for rapid exposure in moving scenes and shortens the detection time, but also improves the resolution of the image, thereby greatly improving the detection efficiency and accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0054] like Figures 1 to 3 As shown, in one embodiment, the X-ray source body 211 is a cold cathode X-ray source, so that the X-ray source body 211 can emit X-rays without preheating, which greatly shortens the start-up time of the X-ray source body 211 and thus greatly improves the detection efficiency of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0055] like Figures 1 to 3 As shown, in one embodiment, the flat panel detection component 220 includes a flat panel detection body 221 and a second sliding frame 222. The detection end of the flat panel detection component 220 is disposed on the flat panel detection body 221. The second sliding frame 222 is located on the side of the digital X-ray imaging detection assembly 200 away from the stretcher surface 110. The sliding end of the second sliding frame 222 is slidably connected to the telescopic stretcher assembly 100. The flat panel detection body 221 is mounted on the side of the second sliding frame 222 facing the stretcher surface 110. The signal receiving end of the flat panel detection body 221 is disposed facing the stretcher surface 110 and opposite to the emitting end of the X-ray source body 211, so that when the medical... When medical personnel move the second sliding frame 222 relative to the telescopic stretcher assembly 100, the second sliding frame 222 can drive the flat plate detection body 221 to move relative to the telescopic stretcher assembly 100. This allows medical personnel to ensure that the signal receiving end of the flat plate detection body 221 is aligned with the emitting end of the X-ray source body 211 by moving the signal receiving end of the flat plate detection body 221 relative to the telescopic stretcher assembly 100. This enables the flat plate detection body 221 to convert the X-ray signal after penetrating the human body into a digital image signal and generate a high-definition image, which facilitates medical personnel in examining patients. This greatly improves the ease of use and detection accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0056] It should be noted that the technology of converting the X-ray signal after penetrating the human body into a digital image signal and generating a high-definition image by the flat panel detection body 221 is existing technology, and will not be elaborated on here.

[0057] like Figures 1 to 4As shown, in one embodiment, the second sliding frame 222 includes a second sliding portion 2221 and a second mounting portion 2222. The second sliding portion 2221 is fixedly connected to the second mounting portion 2222. The sliding end of the second sliding frame 222 is disposed on the second sliding portion 2221. The second sliding portion 2221 is slidably connected to the telescopic stretcher assembly 100. The mounting end of the second sliding frame 222 is disposed on the second mounting portion 2222. The flat plate detection body 221 is mounted on the second mounting portion 2222, so that when medical personnel move the second sliding frame 222 relative to the telescopic stretcher assembly 100... When the second mounting part 2222 is installed, the second mounting part 2222 can move relative to the telescopic stretcher assembly 100 via the second sliding part 2221, so that the second sliding frame 222 can move relative to the telescopic stretcher assembly 100, thereby enabling the second sliding frame 222 to drive the flat plate detection body 221 to move relative to the telescopic stretcher assembly 100, ensuring that the signal receiving end of the flat plate detection body 221 is aligned with the emitting end of the X-ray source body 211, thereby improving the ease of use and detection accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0058] like Figures 1 to 4 As shown, in one embodiment, the second mounting part 2222 is provided with a mounting limiting groove 22221. The groove opening of the mounting limiting groove 22221 faces the stretcher surface 110. The flat plate detection body 221 is accommodated and limited within the mounting limiting groove 22221. This allows the second mounting part 2222 to not only securely limit the flat plate detection body 221 to a preset position through the mounting limiting groove 22221, but also to protect the flat plate detection body 221. This reduces the risk of damage or even destruction to the flat plate detection body 221 due to direct collision with external hard objects during use, thereby greatly improving the service life and stability of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0059] like Figures 1 to 4 As shown, in one embodiment, the second mounting part 2222 also forms a heat dissipation hole 22222 that communicates with the mounting limiting groove 22221. This not only effectively increases the contact area between the flat plate detection body 221 and the air to improve the heat dissipation efficiency of the flat plate detection body 221, but also greatly saves the production materials of the second mounting part 2222, thereby reducing the production cost and overall weight of the second sliding frame 222.

[0060] like Figures 1 to 4 As shown, in one embodiment, the second sliding frame 222 is an aluminum alloy sliding frame or a stainless steel sliding frame, so that the second sliding frame 222 can have better structural strength and stability in use, and at the same time, it can also make the second sliding frame 222 have better corrosion resistance.

[0061] like Figure 1 and Figure 7 As shown, in one embodiment, the telescopic stretcher assembly 100 includes a telescopic stretcher body 120 and a frame 130. The stretcher surface 110 is formed on one side of the top of the telescopic stretcher body 120. The frame 130 is installed and fixed on the side of the telescopic stretcher body 120 opposite to the stretcher surface 110. The frame 130 is used to support the telescopic stretcher body 120, so that the frame 130 can support the telescopic stretcher body 120 away from the ground, so as to avoid secondary injuries such as abrasions and cuts to the patient during transportation due to sharp objects or uneven potholes on the ground. At the same time, it can also prevent the patient's wound from contacting various pollutants on the ground, reducing the risk of infection and inflammation of the patient's wound due to contact with pollutants, and providing reliable protection for the safe transportation of the patient.

[0062] like Figures 7 to 8 As shown, in one embodiment, the telescopic stretcher body 120 includes a main body 121 and two telescopic parts 122. The two telescopic parts 122 are respectively disposed at both ends of the main body 121. Guide holes 1211 are formed at both ends of the main body 121. Each telescopic part 122 has a guide post 1221 disposed opposite to the guide hole 1211. The guide post 1221 of each telescopic part 122 is confined within the corresponding guide hole 1211 and slidably connected to the wall of the guide hole 1211. The frame body 130 is fixedly connected to the main body 121 to support the main body 121, so that the telescopic parts 122 can move along the guide direction of the guide hole 1211 through the mutual cooperation of the guide post 1221 and the guide hole 1211. The two telescopic parts 122 slide relative to the main body 121, so that when the telescopic stretcher body 120 is not in use, simply pushing the two telescopic parts 122 toward the main body 121 to a first preset position on the main body 121 will cause the telescopic stretcher body 120 to be in a retracted state, thereby reducing the volume of the telescopic stretcher body 120. When the telescopic stretcher is needed, simply pushing the two telescopic parts 122 away from the main body 121 to a second preset position on the main body 121 will cause the telescopic stretcher body 120 to be in an extended state, so that the telescopic stretcher body 120 can have a space to carry the patient, thereby greatly improving the storage and carrying convenience of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0063] like Figures 7 to 8As shown, in one embodiment, the telescopic stretcher body 120 also includes fasteners (not shown). Both ends of the main body 121 are provided with positioning holes that communicate with the guide holes 1211. The guide pins 1221 of the two telescopic parts 122 are provided with locking holes. The positioning holes are used to align with the locking holes when the telescopic part 122 is in the second preset position of the main body 121, so that the telescopic part 122 can be securely limited to the second preset position of the main body 121 by the fasteners. This allows the telescopic stretcher body 120 to be stably maintained in the extended state, thereby greatly improving the stability of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0064] like Figures 7 to 8 As shown, in one embodiment, the fastener is a screw or bolt, and the locking hole is a threaded hole.

[0065] like Figures 1 to 9 As shown, in one embodiment, the telescopic stretcher assembly 100 further includes a slide rail 140, which is fixedly mounted on the frame 130. The slide rail 140 has a sliding groove 141. A first sliding portion 2121 has a first sliding limiting flange 21211 formed on one side adjacent to the sliding groove 141. The first sliding limiting flange 21211 is adapted to the sliding groove 141 and is slidably limited within the sliding groove 141, so that the first sliding frame 212 can be reliably limited on the slide rail 140 through the mutual cooperation of the sliding groove 141 and the first sliding limiting flange 21211. At the same time, the first sliding frame 212 can also slide relative to the slide rail 140 along the guiding direction of the sliding groove 141 through the mutual cooperation of the sliding groove 141 and the first sliding limiting flange 21211.

[0066] like Figures 1 to 8 As shown, in one embodiment, a second sliding limiting flange 22211 is formed on one side of the second sliding portion 2221 adjacent to the sliding groove 141. The second sliding limiting flange 22211 is adapted to the sliding groove 141, and the second sliding limiting flange 22211 is slidably limited within the sliding groove 141, so that the second sliding frame 222 can be reliably limited on the slide rail 140 through the mutual cooperation of the sliding groove 141 and the second sliding limiting flange 22211. At the same time, the second sliding frame 222 can also slide relative to the slide rail 140 along the guiding direction of the sliding groove 141 through the mutual cooperation of the sliding groove 141 and the second sliding limiting flange 22211.

[0067] like Figure 1As shown, in one embodiment, the slide rail 140 and the stretcher surface 110 are arranged parallel to each other so that the flat plate detection body 221 and the X-ray source body 211 can move relative to the telescopic stretcher assembly 100 in a direction parallel to the stretcher surface 110, so that the distance between the flat plate detection body 221 and the X-ray source body 211 remains unchanged, thereby improving the stability and detection accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0068] like Figures 3 to 8 As shown, in one embodiment, the first sliding frame 212 further includes a first locking adjustment member 2126. The first sliding portion 2121 has a first threaded hole (not shown) opposite to the locking end of the first locking adjustment member 2126. The locking end of the first locking adjustment member 2126 has a first threaded abutment surface (not shown) adapted to the first threaded hole. The locking end of the first locking adjustment member 2126 is disposed in the first threaded hole and threadedly connected. The locking end of the first locking adjustment member 2126 is opposite to the slide rail 140. The locking end of the first locking adjustment member 2126 is used to press against the slide rail 140 when the first locking adjustment member 2126 is locked and fixed to the first sliding portion 2121, so that when the medical staff puts the first sliding frame... When 212 moves relative to the slide rail 140 to the preset position of the slide rail 140, simply tightening the first locking adjustment member 2126 will allow the locking end of the first locking adjustment member 2126 to press against the slide rail 140. This allows the second sliding part 2221 to be reliably positioned at the preset position of the slide rail 140 by the friction between the locking end of the first locking adjustment member 2126 and the slide rail 140. This prevents the first sliding frame 212 from sliding relative to the slide rail 140 due to external factors such as collisions or vibrations during the examination of the patient by the digital X-ray imaging detection component 200. This greatly improves the stability and accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0069] like Figures 3 to 8As shown, in one embodiment, a first friction surface (not shown) is formed on the side of the first locking adjustment member 2126 facing the slide rail 140. The first friction surface is used to press against the slide rail 140 when the first locking adjustment member 2126 is locked and fixed to the first sliding part 2121, so as to increase the friction between the slide rail 140 and the locking end of the first locking adjustment member 2126. This allows the first sliding part 2121 to be more securely positioned at the preset position of the slide rail 140 through the first friction surface when the first locking adjustment member 2126 is tightened. This effectively avoids the phenomenon that the first sliding frame 212 slides relative to the slide rail 140 due to external factors such as collision or vibration during the examination of the patient by the digital X-ray imaging detection component 200. This further improves the stability and detection accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0070] like Figures 3 to 8 As shown, in one embodiment, the second sliding frame 222 further includes a second locking adjustment member. The second sliding portion 2221 has a second threaded hole (not shown) opposite to the locking end of the second locking adjustment member 2223. The locking end of the second locking adjustment member 2223 has a second threaded abutment surface (not shown) adapted to the second threaded hole. The locking end of the second locking adjustment member 2223 is disposed in the second threaded hole and threadedly connected. The locking end of the second locking adjustment member 2223 is opposite to the slide rail 140. The locking end of the second locking adjustment member 2223 is used to press against the slide rail 140 when the second locking adjustment member 2223 is locked and fixed to the second sliding portion 2221, so that when the medical staff puts the second sliding frame 2222 into place, the second locking adjustment member 2223 can be used to press against the slide rail 140. 2. When the second sliding part 2221 moves to the preset position of the slide rail 140 relative to the slide rail 140, simply tightening the second locking adjustment member 2223 will allow the locking end of the second locking adjustment member 2223 to press against the slide rail 140. This allows the second sliding part 2221 to be reliably positioned at the preset position of the slide rail 140 by the friction between the locking end of the second locking adjustment member 2223 and the slide rail 140. This prevents the second sliding frame 222 from sliding relative to the slide rail 140 due to external factors such as collisions or vibrations during the examination of the patient by the digital X-ray imaging detection component 200. This greatly improves the stability and accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0071] like Figures 3 to 8As shown, in one embodiment, a second friction surface (not shown) is formed on the side of the second locking adjustment member 2223 facing the slide rail 140. The second friction surface is used to press against the slide rail 140 when the second locking adjustment member 2223 is locked and fixed to the second sliding part 2221, so as to increase the friction between the slide rail 140 and the locking end of the second locking adjustment member 2223. This allows the second sliding part 2221 to be more securely positioned at the preset position of the slide rail 140 through the second friction surface when the second locking adjustment member 2223 is tightened. This effectively avoids the phenomenon that the second sliding frame 222 slides relative to the slide rail 140 due to external factors such as collision or vibration during the examination of the patient by the digital X-ray imaging detection component 200. This further improves the stability and detection accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0072] like Figures 1 to 8 As shown, in one embodiment, handles 131 are fixed at both ends of the frame 130. The handles 131 are parallel to the stretcher surface 110 so that when medical staff move patients using the telescopic stretcher 10 with digital X-ray imaging detection function, they can form a stable and balanced force application point by relying on the parallel relationship between the handles 131 and the stretcher surface 110, avoiding the stretcher surface 110 from tilting due to uneven force application, and ensuring that the stretcher surface 110 always remains in a horizontal state during the entire transportation process, thereby providing a stable and comfortable transfer environment for the patient.

[0073] like Figures 1 to 8 As shown, in one embodiment, the telescopic stretcher assembly 100 also includes casters 150, which are installed at the bottom of the frame 130 to support the frame 130. This allows medical personnel to easily push the telescopic stretcher 10 with digital X-ray imaging detection function for flexible movement, making patient transportation more convenient and faster, and greatly improving the ease of use and transportation efficiency of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0074] like Figures 1 to 7 As shown, in one embodiment, the telescopic stretcher assembly 100 further includes a pushing part 160, which is installed at both ends of the telescopic stretcher to provide medical personnel with a point of force to push the telescopic stretcher 10 with digital X-ray imaging detection function to move, thereby further improving the ease of use of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0075] like Figure 11As shown, this disclosure also provides a detection method for a telescopic stretcher with digital X-ray imaging detection function. The telescopic stretcher 10 with digital X-ray imaging detection function described in any of the above embodiments is used to detect the patient. The detection method for the telescopic stretcher with digital X-ray imaging detection function includes some or all of the following steps:

[0076] S101, Place the patient on the stretcher surface 110 of the telescopic stretcher assembly 100;

[0077] In this embodiment, the patient is placed on the stretcher surface 110 of the telescopic stretcher assembly 100 to provide support for the patient's transport and avoid causing secondary injury to the patient during the transport process.

[0078] S103, the emitting end of the X-ray source 210 is positioned above the stretcher surface 110;

[0079] In this embodiment, the emitting end of the X-ray source 210 is positioned above the stretcher surface 110 so that the radiating end of the X-ray source 210 can irradiate the patient located on the stretcher surface 110.

[0080] S105, the detection end of the flat plate detection component 220 is located on the side of the telescopic stretcher assembly 100 away from the stretcher surface 110, and the emitting end of the X-ray source component 210 is positioned opposite to the detection end of the flat plate detection component 220.

[0081] In this embodiment, the detection end of the flat plate detection component 220 is located on the side of the telescopic stretcher assembly 100 away from the stretcher surface 110, and the emitting end of the X-ray source component 210 is positioned opposite to the detection end of the flat plate detection component 220. When the X-ray source component 210 irradiates the patient's body parts with X-rays according to preset parameters, the detection end of the flat plate detection component 220 can quickly and accurately receive the X-rays after penetrating the patient's body, and rely on its internal imaging technology to convert the received X-ray signals into clear and accurate high-definition images, providing reliable diagnostic basis for medical personnel.

[0082] S107, the X-ray source 210 is turned on, and the flat panel detector 220 is turned on at the same time to perform a detection operation on the patient's body.

[0083] In this embodiment, the X-ray source 210 is turned on, and the flat panel detector 220 is turned on simultaneously to perform a detection operation on the patient's body. The X-ray source 210 and the flat panel detector 220 work together to perform digital X-ray imaging detection on the patient. This allows the digital X-ray imaging detection component 200 to detect and diagnose the patient's injuries and report the diagnosis results to the hospital's medical team in real time. This enables the medical team to prepare targeted treatment plans in advance based on the patient's diagnosis results, saving time for the patient's treatment and greatly reducing the risk of sequelae or even death due to delayed treatment.

[0084] In this embodiment, when a patient needs to be transported to a hospital for treatment, firstly, the patient is placed on the stretcher surface 110 of the telescopic stretcher assembly 100; then, the emitting end of the X-ray source 210 is positioned above the stretcher surface 110; next, the detection end of the flat plate detection device 220 is positioned on the side of the telescopic stretcher assembly 100 away from the stretcher surface 110, with the emitting end of the X-ray source 210 and the detection end of the flat plate detection device 220 positioned opposite each other; finally, the X-ray source 210 is turned on, and the flat plate detection device 220 is turned on simultaneously to perform a detection operation on the patient's body.

[0085] In one embodiment, the X-ray source 210 includes an X-ray source body 211 and a first sliding frame 212. The emitting end of the X-ray source 210 is disposed on the X-ray source body 211. The sliding end of the first sliding frame 212 is slidably connected to the telescopic stretcher assembly 100. The mounting end of the first sliding frame 212 is located above and opposite to the stretcher surface 110. The X-ray source body 211 is mounted on the mounting end of the first sliding frame 212, and the X-ray source body 211 is opposite to and spaced apart from the stretcher surface 110, so that a clearance gap is formed between the X-ray source body 211 and the stretcher surface 110. The specific step S103 of disposing the emitting end of the X-ray source 210 above the stretcher surface 110 includes some or all of the following steps:

[0086] S1031, the X-ray source body 211 is installed on the mounting end of the first sliding frame 212, and the X-ray source body 211 is positioned facing the stretcher surface 110.

[0087] In this embodiment, the X-ray source body 211 is mounted on the mounting end of the first sliding frame 212, and the generating end of the X-ray source body 211 is positioned facing the stretcher surface 110 so that the generating end of the X-ray source body 211 can irradiate the patient located on the stretcher surface 110 with X-rays.

[0088] In one embodiment, the flat panel detection component 220 includes a flat panel detection body 221 and a second sliding frame 222. The detection end of the flat panel detection component 220 is disposed on the flat panel detection body 221. The second sliding frame 222 is located on the side of the digital X-ray imaging detection assembly 200 away from the stretcher surface 110. The sliding end of the second sliding frame 222 is slidably connected to the telescopic stretcher assembly 100. The flat panel detection body 221 is mounted on the side of the second sliding frame 222 facing the stretcher surface 110. The signal receiving end of the flat panel detection body 221 is disposed facing the stretcher surface 110 and is disposed opposite to the emitting end of the X-ray source body 211. The specific step S105 of disposing the detection end of the flat panel detection component 220 on the side of the telescopic stretcher assembly 100 away from the stretcher surface 110 and disposing the emitting end of the X-ray source body 210 opposite to the detection end of the flat panel detection component 220 includes some or all of the following steps:

[0089] S1051, the flat plate detection body 221 is installed on the mounting end of the second sliding frame 222, and the signal receiving end of the flat plate detection body 221 is set towards the stretcher surface 110;

[0090] S1053, the signal receiving end of the flat plate detection body 221 is positioned opposite to the emitting end of the X-ray source body 211.

[0091] In this embodiment, the flat panel detection body 221 is mounted on the mounting end of the second sliding frame 222, and the signal receiving end of the flat panel detection body 221 is positioned facing the stretcher surface 110. Simultaneously, the signal receiving end of the flat panel detection body 221 is positioned opposite to the emitting end of the X-ray source body 211.

[0092] In one embodiment, the first sliding frame 212 further includes a first locking adjustment member 2126. The first sliding portion 2121 has a threaded hole opposite to the locking end of the first locking adjustment member 2126. The first sliding portion 2121 also has a first threaded hole opposite to the locking end of the first locking adjustment member 2126. The locking end of the first locking adjustment member 2126 has a first threaded abutment surface adapted to the first threaded hole. The locking end of the first locking adjustment member 2126 is disposed within the first threaded hole and threadedly connected. The locking end of the first locking adjustment member 2126 is opposite to the slide rail 140. The locking end of the first locking adjustment member 2126 is used to press against the slide rail 140 when the first locking adjustment member 2126 is locked and fixed to the first sliding portion 2121. On the rail 140; the second sliding frame 222 also includes a second locking adjustment member, the second sliding part 2221 forms a threaded hole that is opposite to the locking end of the second locking adjustment member 2223, the second sliding part 2221 forms a second threaded hole that is opposite to the locking end of the second locking adjustment member 2223, the locking end of the second locking adjustment member 2223 forms a second threaded abutment surface that is adapted to the second threaded hole, the locking end of the second locking adjustment member 2223 is disposed in the second threaded hole and threadedly connected, the locking end of the second locking adjustment member 2223 is opposite to the slide rail 140, and the locking end of the second locking adjustment member 2223 is used to press against the slide rail 140 when the second locking adjustment member 2223 is locked and fixed to the second sliding part 2221. The specific step S1053 of setting the signal receiving end of the flat plate detection body 221 opposite to the emitting end of the X-ray source body 211 includes part or all of the following steps:

[0093] S1055, the first sliding frame 212 and the second sliding frame 222 are moved relative to the slide rail 140 to a preset position on the slide rail 140 so that the emitting end of the X-ray source body 211 and the signal receiving end of the flat plate detection body 221 are positioned opposite each other.

[0094] In this embodiment, the first sliding frame 212 and the second sliding frame 222 are moved relative to the slide rail 140 to a preset position on the slide rail 140, so that the emitting end of the X-ray source body 211 and the signal receiving end of the flat plate detection body 221 are positioned opposite each other, so that the emitting end of the X-ray source body 211 and the signal receiving end of the flat plate detection body 221 can cooperate with each other to detect the patient's injury.

[0095] S1057, tighten the first locking adjustment member 2126 so that the first sliding frame 212 is positioned at the preset position of the slide rail 140 by the first locking adjustment member 2126;

[0096] In this embodiment, the first locking adjustment member 2126 is tightened so that the first sliding frame 212 is positioned at a preset position on the slide rail 140 by the first locking adjustment member 2126. This ensures that the first sliding frame 212 is securely positioned at the preset position on the slide rail 140, preventing the first sliding frame 212 from sliding or even displacing relative to the telescopic stretcher assembly 100 under the influence of external factors such as external collisions or vibrations. This greatly improves the stability and accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0097] S1059, tighten the second locking adjustment member 2223 so that the second sliding frame 222 is positioned at the preset position of the slide rail 140 by the second locking adjustment member 2223.

[0098] In this embodiment, the second locking adjustment member 2223 is tightened so that the second sliding frame 222 is positioned at a preset position on the slide rail 140 by the second locking adjustment member 2223. This ensures that the second sliding frame 222 is securely positioned at the preset position on the slide rail 140, preventing the second sliding frame 222 from sliding or even displacing relative to the telescopic stretcher assembly 100 under the influence of external factors such as external collisions or vibrations. This greatly improves the stability and accuracy of the telescopic stretcher 10 with digital X-ray imaging detection function.

[0099] Compared with the prior art, this disclosure has at least the following advantages:

[0100] The aforementioned detection method for a telescopic stretcher with digital X-ray imaging detection function involves a stretcher surface 110 formed by the telescopic stretcher assembly 100, which is used to support and transport patients. The digital X-ray imaging detection assembly 200 is used to perform detection operations on the patient on the stretcher surface 110. The digital X-ray imaging detection assembly 200 includes an X-ray source 210 and a flat panel detection component 220. The emitting end of the X-ray source 210 is located above the stretcher surface 110, and the detection end of the flat panel detection component 220 is located on the side of the telescopic stretcher assembly 100 opposite to the stretcher surface 110. The emitting end of the X-ray source 210 and the detection end of the flat panel detection component 220 are positioned opposite each other to perform detection operations on the patient on the stretcher surface 110. When medical personnel place the patient at a preset position on the stretcher surface 110… The X-ray source 210 and the flat panel detector 220 will then be activated. After the X-ray source 210 is activated, it will emit X-rays towards the patient. The activated flat panel detector 220 will quickly and accurately receive the X-rays that have penetrated the patient and convert them into high-definition images. This allows medical staff to diagnose the patient's injuries using the high-definition images generated by the digital X-ray imaging detector 200 during the rapid transfer of the patient using the telescopic stretcher 10 with digital X-ray imaging detection function. The diagnosis results can then be reported to the hospital's medical team in real time, enabling the medical team to prepare targeted treatment plans in advance based on the diagnosis results. This saves time for the patient's treatment and greatly reduces the risk of sequelae or even death due to delayed treatment.

[0101] The embodiments described above are merely illustrative of several implementations of this disclosure, and while the descriptions are specific and detailed, they should not be construed as limiting the scope of the disclosed patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this disclosure, and these all fall within the protection scope of this disclosure. Therefore, the protection scope of this patent should be determined by the appended claims.

Claims

1. A telescopic stretcher with digital X-ray imaging detection function, characterized in that, Includes telescopic stretcher components and digital X-ray imaging inspection components; The telescopic stretcher assembly has a stretcher surface for supporting and transporting patients; the digital X-ray imaging detection assembly is used to perform detection operations on the patients on the stretcher surface. The digital X-ray imaging detection assembly includes an X-ray source and a flat plate detection assembly. The emitting end of the X-ray source is located above the stretcher surface, and the detection end of the flat plate detection assembly is located on the side of the telescopic stretcher assembly away from the stretcher surface. The emitting end of the X-ray source and the detection end of the flat plate detection assembly are arranged opposite to each other to perform detection operations on the patient on the stretcher surface.

2. The telescopic stretcher with digital X-ray imaging detection function according to claim 1, characterized in that, The X-ray source device includes an X-ray source body and a first sliding frame. The emitting end of the X-ray source device is disposed on the X-ray source body. The sliding end of the first sliding frame is slidably connected to the telescopic stretcher assembly. The mounting end of the first sliding frame is located above the stretcher surface and is disposed opposite to the stretcher surface. The X-ray source body is mounted on the mounting end of the first sliding frame, and the X-ray source body is disposed opposite to and spaced apart from the stretcher surface to form a clearance gap between the X-ray source body and the stretcher surface. The emitting end of the X-ray source body is disposed in the direction of the stretcher surface.

3. The telescopic stretcher with digital X-ray imaging detection function according to claim 2, characterized in that, The first sliding frame includes a first sliding part and a first mounting part. The first sliding part is rotatably connected to the first mounting part. The sliding end of the first sliding frame is disposed on the first sliding part. The first sliding part is slidably connected to the telescopic stretcher assembly. The mounting end of the first sliding frame is disposed on the first mounting part. The X-ray source body is mounted on the first mounting part.

4. The telescopic stretcher with digital X-ray imaging detection function according to claim 3, characterized in that, The flat panel detection component includes a flat panel detection body and a second sliding frame. The detection end of the flat panel detection component is disposed on the flat panel detection body. The second sliding frame is located on the side of the digital X-ray imaging detection assembly away from the stretcher surface. The sliding end of the second sliding frame is slidably connected to the telescopic stretcher assembly. The flat panel detection body is mounted on the side of the second sliding frame facing the stretcher surface. The signal receiving end of the flat panel detection body is disposed facing the stretcher surface and is disposed opposite to the emitting end of the X-ray source body.

5. The telescopic stretcher with digital X-ray imaging detection function according to claim 4, characterized in that, The second sliding frame includes a second sliding part and a second mounting part. The second sliding part is fixedly connected to the second mounting part. The sliding end of the second sliding frame is disposed on the second sliding part. The second sliding part is slidably connected to the telescopic stretcher assembly. The mounting end of the second sliding frame is disposed on the second mounting part. The flat plate detection body is mounted on the second mounting part.

6. The telescopic stretcher with digital X-ray imaging detection function according to claim 5, characterized in that, The telescopic stretcher assembly includes a telescopic stretcher body and a frame. The stretcher surface is formed on one side of the top of the telescopic stretcher body, and the frame is installed and fixed on the side of the telescopic stretcher body opposite to the stretcher surface. The frame is used to support the telescopic stretcher body.

7. The telescopic stretcher with digital X-ray imaging detection function according to claim 6, characterized in that, The telescopic stretcher body includes a main body and two telescopic parts. The two telescopic parts are respectively disposed at both ends of the main body. Each end of the main body has a guide hole, and each of the two telescopic parts has a guide post disposed opposite to the guide hole. The guide post of each telescopic part is limited to the corresponding guide hole and is slidably connected to the hole wall of the guide hole. The frame is fixedly connected to the main body to support the main body.

8. The telescopic stretcher with digital X-ray imaging detection function according to claim 6, characterized in that, The telescopic stretcher assembly also includes a slide rail, which is installed and fixed on the frame. The slide rail has a sliding groove. A first sliding limiting flange is formed on one side of the first sliding part adjacent to the sliding groove. The first sliding limiting flange is adapted to the sliding groove and is slidably limited within the sliding groove.

9. The telescopic stretcher with digital X-ray imaging detection function according to claim 8, characterized in that, A second sliding limiting flange is formed on one side of the second sliding part adjacent to the sliding groove. The second sliding limiting flange is adapted to the sliding groove, and the second sliding limiting flange is slidably limited within the sliding groove.

10. A method for inspecting a telescopic stretcher with digital X-ray imaging detection function, characterized in that, The patient is examined using a telescopic stretcher with digital X-ray imaging detection function, as described in any one of claims 1 to 9. The steps of the detection method using the telescopic stretcher with digital X-ray imaging detection function include: Place the patient on the stretcher surface of the telescopic stretcher assembly; The emitting end of the X-ray source is positioned above the stretcher surface; The detection end of the flat plate detection component is located on the side of the telescopic stretcher assembly away from the stretcher surface, and the emitting end of the X-ray source component is positioned opposite to the detection end of the flat plate detection component. The X-ray source is turned on, and the flat panel detector is turned on simultaneously to perform a detection operation on the patient's body.

Images