mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical injection device, comprising: a main body; a movable member mounted inside the main body and provided movably in a lengthwise direction of the main body; a pharmaceutical holding member mounted to the movable member and includes a needle mount for an injection needle on one end, the pharmaceutical holding member being configured to house a pharmaceutical syringe containing a drug to be injected into a body; a first detector provided to the movable member and being configured to detect a mounting of an injection needle on the needle mount; and a detection member (19, 27) configured to move in the lengthwise direction with respect to the movable member when an injection needle has been mounted to the needle mount of the pharmaceutical holding member, wherein the first detector is disposed to an end of the movable member on the opposite side from the needle mount, and the first detector detects the mounting of an injection needle to the needle mount by the detection member (19, 27) moved in the lengthwise direction. a main body; a movable member mounted inside the main body and provided movably in a lengthwise direction of the main body; a pharmaceutical holding member mounted to the movable member and includes a needle mount for an injection needle on one end, the pharmaceutical holding member being configured to house a pharmaceutical syringe containing a drug to be injected into a body; a first detector provided to the movable member and being configured to detect a mounting of an injection needle on the needle mount; and a detection member (19, 27) configured to move in the lengthwise direction with respect to the movable member when an injection needle has been mounted to the needle mount of the pharmaceutical holding member, wherein the first detector is disposed to an end of the movable member on the opposite side from the needle mount, and the first detector detects the mounting of an injection needle to the needle mount by the detection member (19, 27) moved in the lengthwise direction.
A method comprising: receiving pulse information over a first time period, wherein the pulse information is indicative of an angular distance travelled by a first wheel; comparing the pulse information to a threshold value; and outputting at least one of a landing likely message and a landing unlikely message based upon the comparison. receiving pulse information over a first time period, wherein the pulse information is indicative of an angular distance travelled by a first wheel; comparing the pulse information to a threshold value; and outputting at least one of a landing likely message and a landing unlikely message based upon the comparison.
A control surface assembly comprising: an aircraft structural component, a control surface movably mounted to the aircraft structural component, an actuator comprising a first electric motor arranged to drive the control surface relative to the aircraft wing component via a first load path therebetween, and, a damping assembly arranged to damp relative motion between the control surface and the aircraft wing component via a second load path between the aircraft wing component to the control surface, characterised in that the second load path is separate from the first load path. an aircraft structural component, a control surface movably mounted to the aircraft structural component, an actuator comprising a first electric motor arranged to drive the control surface relative to the aircraft wing component via a first load path therebetween, and, a damping assembly arranged to damp relative motion between the control surface and the aircraft wing component via a second load path between the aircraft wing component to the control surface, characterised in that the second load path is separate from the first load path.
A method of providing a virtual phone number service in a value added service server, the value added service server being associated with a mobile communication network including a first and a second message service center (405, 409) and a first and a second home location register (413, 415), the method comprising the steps of: receiving a message signal including an actual phone number corresponding to a virtual phone number from the first message service center, wherein the first message service center receives a message signal transmitted using the virtual phone number from an originating terminal and requests routing information for the virtual phone number to the first home location register, the message signal is transmitted from the first message service center based on a routing information response signal received from the first home location register, the routing information signal including the previously stored actual phone number corresponding to the virtual phone number; altering the message signal by indicating that the message is associated with a virtual phone number service in the message signal; and transmitting the altered message signal to the second message service center, wherein the second message service center, having received the altered message signal, requests routing information for the actual phone number to the second home location register, the second home location register, having received a request for the routing information, transmits routing information for the actual phone number to the second message service center, and the second message service center, having received the routing information, transmits the message signal to a terminating terminal based on the routing information. receiving a message signal including an actual phone number corresponding to a virtual phone number from the first message service center, wherein the first message service center receives a message signal transmitted using the virtual phone number from an originating terminal and requests routing information for the virtual phone number to the first home location register, the message signal is transmitted from the first message service center based on a routing information response signal received from the first home location register, the routing information signal including the previously stored actual phone number corresponding to the virtual phone number; altering the message signal by indicating that the message is associated with a virtual phone number service in the message signal; and transmitting the altered message signal to the second message service center, wherein the second message service center, having received the altered message signal, requests routing information for the actual phone number to the second home location register, the second home location register, having received a request for the routing information, transmits routing information for the actual phone number to the second message service center, and the second message service center, having received the routing information, transmits the message signal to a terminating terminal based on the routing information.
A backrest part for a seat, in particular a vehicle seat, comprising at least one back plate and a plurality of individual profiles (3.1 to 3.n), wherein the back plate has beadings protruding in sections in the direction of the profiles (3.1 to 3.n), and the profiles (3.1 to 3.n) are connected in a frictional and/or integrally bonded manner to the back plate in a region of the beadings, wherein a section having a plurality of beadings is formed in each corner of the back plate, and wherein the beadings of each section are in each case arranged parallel to each other at a predetermined distance, characterized in that the beadings of each section in each case extend diagonally between the adjacent edges of the back plate, wherein beadings of mutually adjacent sections run at an angle to one another, and wherein the length of the beadings running parallel to one another decreases in the respective section in the direction of the corners.
A media system comprising: a transcoding apparatus which receives preferably high resolution media data and converts these into a media stream with low resolution and a media stream with high resolution, a logging apparatus which receives the media stream with low resolution and optionally also the media stream with high resolution, and displays the media data thereof to a user, wherein the logging apparatus is further configured to instantly accesses the media stream with low resolution and optionally to access also the media stream with high resolution, and to add metadata to individual images of the media data; wherein the transcoding apparatus provides the low resolution media stream and the high resolution media stream with an identical media stream identifier, wherein individual corresponding images of the media data in the two media streams are provided with an identical identification code by the transcoding device, the respective metadata having an identification code of the corresponding image for identifying and assigning the individual metadata to individual images, and the metadata being linked to the media data by means of the media stream identifier. a transcoding apparatus which receives preferably high resolution media data and converts these into a media stream with low resolution and a media stream with high resolution, a logging apparatus which receives the media stream with low resolution and optionally also the media stream with high resolution, and displays the media data thereof to a user, wherein the logging apparatus is further configured to instantly accesses the media stream with low resolution and optionally to access also the media stream with high resolution, and to add metadata to individual images of the media data; wherein the transcoding apparatus provides the low resolution media stream and the high resolution media stream with an identical media stream identifier, wherein individual corresponding images of the media data in the two media streams are provided with an identical identification code by the transcoding device, the respective metadata having an identification code of the corresponding image for identifying and assigning the individual metadata to individual images, and the metadata being linked to the media data by means of the media stream identifier.
A method for collecting tire wear comprising the steps of: - Providing at least one collecting device (20; 22; 23); and - Collecting tire wear at the collecting device (20; 22; 23), wherein the collecting device (20; 22; 23) is magnetically attractive, wherein the tire wear is magnetically attractable, and wherein the collecting device (20; 22; 23) is not vehicle-bound, characterized in that the collecting device (20; 22; 23) has an effective field strength of at least 30 mT or more, preferably of at least 100 mT or more, at a surface of the collecting device (20; 22; 23), and wherein the collecting device (20; 22; 23) collects the tire wear by means of a magnetic attraction force between the collecting device (20; 22; 23) and the tire wear. - Providing at least one collecting device (20; 22; 23); and - Collecting tire wear at the collecting device (20; 22; 23), wherein the collecting device (20; 22; 23) is magnetically attractive, wherein the tire wear is magnetically attractable, and wherein the collecting device (20; 22; 23) is not vehicle-bound, characterized in that the collecting device (20; 22; 23) has an effective field strength of at least 30 mT or more, preferably of at least 100 mT or more, at a surface of the collecting device (20; 22; 23), and wherein the collecting device (20; 22; 23) collects the tire wear by means of a magnetic attraction force between the collecting device (20; 22; 23) and the tire wear. characterized in that the collecting device (20; 22; 23) has an effective field strength of at least 30 mT or more, preferably of at least 100 mT or more, at a surface of the collecting device (20; 22; 23), and wherein the collecting device (20; 22; 23) collects the tire wear by means of a magnetic attraction force between the collecting device (20; 22; 23) and the tire wear.
A method for preparing an A-B-C 2 or A 2 -(D x,E 1-x)-C 4 absorber thin film for photovoltaic cells where 0≤x≤1, A is an element or a mixture of elements selected from group 11, B is an element or a mixture of elements selected from group 13, C is an element or a mixture of elements selected from group 16, D is an element or a mixture of elements selected from group 12 and E is an element or a mixture of elements selected from group 14, said method comprising: • a first step of electrodepositing a thin film of a mixture of oxides and/or hydroxides comprising, for an A-B-C 2 film, at least one element from group 11 and one element from group 13 or, for an A 2 -(D x,E 1-x)-C 4 film, at least one element from group 11, at least one element from group 12 if x>0, and at least one element from group 14 if x<1, • a second step of annealing the thin film in a reducing atmosphere, • a third step of supplying at least one element from group 16 in order to form an A-B-C 2 or A 2 -(D x,E 1-x)-C 4 thin film where 0≤x≤1. • a first step of electrodepositing a thin film of a mixture of oxides and/or hydroxides comprising, for an A-B-C 2 film, at least one element from group 11 and one element from group 13 or, for an A 2 -(D x,E 1-x)-C 4 film, at least one element from group 11, at least one element from group 12 if x>0, and at least one element from group 14 if x<1, • a second step of annealing the thin film in a reducing atmosphere, • a third step of supplying at least one element from group 16 in order to form an A-B-C 2 or A 2 -(D x,E 1-x)-C 4 thin film where 0≤x≤1.
A method for assigning a computational block, comprising a plurality of loops, of a software program to cores (401, 403) of a multi-processor system, the method comprising: evaluating a first number, K1act, of available cores of a first type of the multi-processor system and a second number, K2act, of available cores of a second type of the multi-processor system; determining a first number, n1, of loops of the computational block for binding with the cores of the first type and a second number, n2, of loops of the computational block for binding with the cores of the second type, wherein the first number, n1, of loops is determined based on the first number, K1act, the second number, K2act, of available cores, and a clock-wise frequency, f1, of the first core and a clock-wise frequency, f2, of the second core, according to the following relation: where N is a total number of loops of the computational block and the operator └•┘ of a real-valued number denotes evaluation of an integer value of the number by omitting the fractional part of the number; wherein the second number, n2, of loops is determined such that a sum of the second number, n2, of loops and the first number, n1, of loops corresponds to the total number, N, of loops; binding the first number, n1, of loops with the cores of the first type and binding the second number, n2, of loops with the cores of the second type; and executing the loops (203, 205) of the computational block according to the binding, wherein the binding of the loops with the cores is performed dynamically. evaluating a first number, K1act, of available cores of a first type of the multi-processor system and a second number, K2act, of available cores of a second type of the multi-processor system; determining a first number, n1, of loops of the computational block for binding with the cores of the first type and a second number, n2, of loops of the computational block for binding with the cores of the second type, wherein the first number, n1, of loops is determined based on the first number, K1act, the second number, K2act, of available cores, and a clock-wise frequency, f1, of the first core and a clock-wise frequency, f2, of the second core, according to the following relation: where N is a total number of loops of the computational block and the operator └•┘ of a real-valued number denotes evaluation of an integer value of the number by omitting the fractional part of the number; wherein the second number, n2, of loops is determined such that a sum of the second number, n2, of loops and the first number, n1, of loops corresponds to the total number, N, of loops; binding the first number, n1, of loops with the cores of the first type and binding the second number, n2, of loops with the cores of the second type; and executing the loops (203, 205) of the computational block according to the binding, wherein the binding of the loops with the cores is performed dynamically.
An implant for insertion between adjacent vertebral bodies, the implant comprising: (a) a base having a first contact surface for contacting a first region of tissue, said base comprising a first portion displaceable relative to a second portion, said base having an initial length and being shortened towards a second length through relative motion of said first portion and said second portion; (b) a hinged element having a second contact surface for contacting a second of the adjacent vertebral bodies, said hinged element being interconnected with said first portion of said base at a hinge; and (c) a linking segment hingedly connected to said second portion of said base at an axis of hinged interconnection and further hingedly connected to said hinged element at an axis of hinged interconnection, wherein each of said first and second contact surfaces (14, 22) is provided with tissue engaging features for anchoring against adjacent bone surfaces, characterized in that said base, said hinged element and said linking segment form a rigid triangular geometry for any given length of said base such that shortening of said base from said initial length towards said second length causes said linking segment to push a region of said hinged element away from said base, thereby changing an angle of said second contact surface relative to said first contact surface such that, when the implant is deployed between the first and second vertebral bodies and said base is shortened, said changing of said angle of said second contact surface relative to said first contact surface contributing to an angular correction between the vertebral bodies, and wherein a largest dimension (D 1) of said second contact surface is at least 40% longer than a dimension (D 2) between said axis of hinged interconnection between said linking segment and said second portion of said base and said axis of hinged interconnection between said linking segment and said hinged element. (a) a base having a first contact surface for contacting a first region of tissue, said base comprising a first portion displaceable relative to a second portion, said base having an initial length and being shortened towards a second length through relative motion of said first portion and said second portion; (b) a hinged element having a second contact surface for contacting a second of the adjacent vertebral bodies, said hinged element being interconnected with said first portion of said base at a hinge; and (c) a linking segment hingedly connected to said second portion of said base at an axis of hinged interconnection and further hingedly connected to said hinged element at an axis of hinged interconnection,
A method for coating a solid wood floor, comprising: providing a solid wood floor, wherein the solid wood floor has two side surfaces (10a, 10b) defining boundaries of a width dimension (x) of the solid wood floor; and providing a polyethylene protective film, and adhering the polyethylene protective film to at least one of the two side surfaces (10a, 10b); the method further comprises: forming a paint film on the at least one side surface (10a, 10b) before adhering the polyethylene protective film to the at least one side surface (10a, 10b); and heating both ends of the at least one side surface (10a, 10b) after adhering the polyethylene protective film to the at least one side surface (10a, 10b), wherein the heating temperature ranges from 400°C to 600°C. providing a solid wood floor, wherein the solid wood floor has two side surfaces (10a, 10b) defining boundaries of a width dimension (x) of the solid wood floor; and providing a polyethylene protective film, and adhering the polyethylene protective film to at least one of the two side surfaces (10a, 10b); the method further comprises: forming a paint film on the at least one side surface (10a, 10b) before adhering the polyethylene protective film to the at least one side surface (10a, 10b); and heating both ends of the at least one side surface (10a, 10b) after adhering the polyethylene protective film to the at least one side surface (10a, 10b), wherein the heating temperature ranges from 400°C to 600°C. forming a paint film on the at least one side surface (10a, 10b) before adhering the polyethylene protective film to the at least one side surface (10a, 10b); and heating both ends of the at least one side surface (10a, 10b) after adhering the polyethylene protective film to the at least one side surface (10a, 10b), wherein the heating temperature ranges from 400°C to 600°C.
A switching device, comprising a housing, and a linkage mechanism, the linkage mechanism comprising a drive shaft which is capable of rotating around its center and has a pair of drive rods (10a, 10b), two moving contacts (30a, 30b) which are capable of rotating around respective fixed pivot points, and two connecting rods (20a, 20b) which are centrosymmetric with respect to the center, the two ends of each of the connecting rods (20a, 20b) being pivotably connected to one end of the drive rod (10a, 10b) and one of the moving contacts (30a, 30b), respectively, wherein the switching device further comprises a limiting mechanism (91, 92) disposed on the housing, the limiting mechanism (91, 92) being capable of limiting the rotation angle of the drive rods (10a, 10b), characterized in that two moving contacts (30a, 30b) are arranged in parallel and are centrosymmetric with respect to the center, wherein the limiting mechanism comprises a pair of protrusions (91, 92) located at two diametrically opposed sides with respect to the center, wherein when the drive rods (10a, 10b) rotate to a specific angle, each drive rod (10a, 10b) is obstructed by the allocated protrusion, so that the possibility of further rotation of the drive shaft is limited. a drive shaft which is capable of rotating around its center and has a pair of drive rods (10a, 10b), two moving contacts (30a, 30b) which are capable of rotating around respective fixed pivot points, and two connecting rods (20a, 20b) which are centrosymmetric with respect to the center, the two ends of each of the connecting rods (20a, 20b) being pivotably connected to one end of the drive rod (10a, 10b) and one of the moving contacts (30a, 30b), respectively, wherein the switching device further comprises a limiting mechanism (91, 92) disposed on the housing, the limiting mechanism (91, 92) being capable of limiting the rotation angle of the drive rods (10a, 10b), characterized in that two moving contacts (30a, 30b) are arranged in parallel and are centrosymmetric with respect to the center, wherein the limiting mechanism comprises a pair of protrusions (91, 92) located at two diametrically opposed sides with respect to the center, wherein when the drive rods (10a, 10b) rotate to a specific angle, each drive rod (10a, 10b) is obstructed by the allocated protrusion, so that the possibility of further rotation of the drive shaft is limited.