mhurhangee/patent-ind-claim-en huggingface dataset:
Amounting substrate, comprising: a wiring substrate ; a plurality of light-emitting elements arranged in a matrix on the wiring substrate; and a plurality of drive ICs that are arranged in a matrix on the wiring substrate, and control light emission of the light-emitting elements; and an embedding layer , wherein the light-emitting elements and the drive ICs are mounted on a same surface , and the wiring substrate includes a plurality of first wiring lines on the same surface where the light-emitting elements and the drive ICs are mounted, the first wiring lines that electrically couple the light-emitting elements to the drive ICs, and characterized in that the embedding layer covers a surface of the light-emitting elements, a surface of the drive ICs, and a surface of the first wiring lines. a wiring substrate ; a plurality of light-emitting elements arranged in a matrix on the wiring substrate; and a plurality of drive ICs that are arranged in a matrix on the wiring substrate, and control light emission of the light-emitting elements; and an embedding layer , wherein the light-emitting elements and the drive ICs are mounted on a same surface , and the wiring substrate includes a plurality of first wiring lines on the same surface where the light-emitting elements and the drive ICs are mounted, the first wiring lines that electrically couple the light-emitting elements to the drive ICs, and characterized in that the embedding layer covers a surface of the light-emitting elements, a surface of the drive ICs, and a surface of the first wiring lines.
Assembly for load distribution in a vehicle , having a longitudinal member in the form of a hollow profiled element, a fastening sleeve and a cross-member , which has at least one fastening flange , wherein at least portions of the at least one fastening flange of the cross-member run parallel to the longitudinal member , and the at least one fastening flange of the cross-member is connected to the fastening sleeve , wherein the fastening sleeve is inserted into the longitudinal member in such a way and form-fittingly connected to the longitudinal member in such a way that the fastening sleeve runs parallel to the cross-member and introduces acting tensile loads into the longitudinal member , wherein the at least one fastening flange has a fastening tab which is screwed to the fastening sleeve at one end.
A touch sensitive screen arrangement comprising a screen including an optically dispersive base plate , and means for transmitting light onto and into said base plate in response to an external body touching said screen at a touch point such that a location of incident light on the surface of said base plate is representative of a relative position of said touch point on said screen, wherein said base plate is configured to capture and transmit within the base plate light incident thereon and disperse said transmitted light by spreading and energy loss, an optically dispersive characteristic of said base plate being such that a decrease in intensity of said transmitted light with distance from said location of incidence on said base plate surface approximates an exponential function, the arrangement further comprising at least one sensor for detecting an intensity of light transmitted out of the base plate at a respective edge of said base plate, and processing means for calculating the relative position of said touch point on said screen from said detected light intensity and said exponential function and generating a control signal representative of a control input derived from said relative position of said touch point.
Device for conveying hollow bodies for an installation for producing containers by forming of preforms, the conveying device comprising: - at least one transport element that is able to move in a longitudinal direction, and comprising at least one mandrel that slides vertically between an active position in which a head is intended to grasp a hollow body by a neck , in particular by press-fitting in the neck , and an inactive position in which the head is intended to release the neck ; - at least one first cam follower that slides conjointly with the mandrel ; - a receiving cam which comprises a cam track that cooperates directly with the first cam follower to hold the mandrel in its inactive position; characterized in that it comprises: - a lifting cam arranged directly upstream of the receiving cam , the lifting cam being mounted so as to slide vertically between a lower position and an upper position in order to drive the mandrel from its active position to its inactive position by pushing the first cam follower ; - at least one second, safety cam follower that slides conjointly with the mandrel ; - a safety cam which comprises a driving ramp for driving the mandrel from its active position to its inactive position by direct cooperation with the second cam follower in the event of the lifting cam failing. - at least one transport element that is able to move in a longitudinal direction, and comprising at least one mandrel that slides vertically between an active position in which a head is intended to grasp a hollow body by a neck , in particular by press-fitting in the neck , and an inactive position in which the head is intended to release the neck ; - at least one first cam follower that slides conjointly with the mandrel ; - a receiving cam which comprises a cam track that cooperates directly with the first cam follower to hold the mandrel in its inactive position; - a lifting cam arranged directly upstream of the receiving cam , the lifting cam being mounted so as to slide vertically between a lower position and an upper position in order to drive the mandrel from its active position to its inactive position by pushing the first cam follower ; - at least one second, safety cam follower that slides conjointly with the mandrel ; - a safety cam which comprises a driving ramp for driving the mandrel from its active position to its inactive position by direct cooperation with the second cam follower in the event of the lifting cam failing.
A chair comprising a fitting for coupling a back support rack of a chair's back and a tabletop of a table to each other in a removable manner, the table comprising the tabletop which rests upon table legs and the chair comprising the back as well as a seat portion provided with chair legs , said seat portion including a sitting section which bears against a horizontal frame of the seat portion to which the horizontal frame is also linked the upward directed back by way of a support rack , which support rack is provided with two upward directed tubular attachment braces , and a backrest is fixed to the back's support rack , wherein the fitting is accommodated between a bottom edge of the backrest and said horizontal frame of the seat portion of the chair and the fitting is fixed at least in a partially removable manner to said upward directed tubular attachment braces of the support rack of the chair's back by mounting said fitting to a rearward directed bend of said upward directed tubular attachment brace , wherein the fitting includes a mouth , which comprises a mouth bottom as well as an upper jaw of the mouth and a lower jaw of the mouth ntegral with the mouth bottom and extending at a distance (V) from each other over the entire length thereof, whereby the upper and lower jaws are co-directional with or at an angle relative to each other and between what in a view from the mouth bottom are furthermost edges thereof is left an entrance of the mouth which, in a view from the mouth bottom , is located in its entirety ahead of the sitting section of the chair's seat portion and opens towards said sitting section n such a way that between a middle plane (K) of a mouth opening left between the mouth's upper and lower jaws and a middle plane (T) of the tabletop s established an acute angle (b) as the chair has been coupled by way of the fitting to the tabletop by arranging the tabletop in the mouth opening in such a way that the mouth has its trough bottom and upper jaw bearing against a top surface of the tabletop and the mouth has its lower jaw bearing against a bottom surface of the tabletop , wherein either the fitting mouth is a separate piece, which is attached removably or fixedly to the back's support rack and which is formed with a horizontal channel having a trough bottom or mouth bottom in the shape of a gently curving C or the mouth bottom is a gently curving C-shaped, open-sided horizontal channel, which is fashioned from the back's support rack and which is defined from above and below by the fitting mouth's upper and lower jaws integral with the mouth bottom .
Vibration absorber device configured for being part of an aircraft and configured for generating a force for absorbing vibration in a structure of the aircraft, the vibration absorber device comprising a base for attaching the vibration absorber device to the structure , a first mass element , a second mass element , a first spring element connected between the base and the first mass element , a second spring element connected between the first mass element and the second mass element , an actuator configured to introduce an actuation force (F e ) between the first mass element and the second mass element in such a manner that the actuator moves the first mass element relative to the second mass element , wherein the actuator is connected between the first mass element and the second mass element , and a vibration sensor which is directly attachable to the structure or which is attached to the base for detecting the vibration of the structure , wherein the actuator is solely fixed to the first mass element and the second mass element or the actuator is solely fixed to the second spring element , characterized by a guiding element which guides the movement of the first mass element and/or of the second mass element , wherein the guiding element is constituted by at least two springs that are arranged in parallel a base for attaching the vibration absorber device to the structure , a first mass element , a second mass element , a first spring element connected between the base and the first mass element , a second spring element connected between the first mass element and the second mass element , an actuator configured to introduce an actuation force (F e ) between the first mass element and the second mass element in such a manner that the actuator moves the first mass element relative to the second mass element , wherein the actuator is connected between the first mass element and the second mass element , and a vibration sensor which is directly attachable to the structure or which is attached to the base for detecting the vibration of the structure , wherein the actuator is solely fixed to the first mass element and the second mass element or the actuator is solely fixed to the second spring element , characterized by a guiding element which guides the movement of the first mass element and/or of the second mass element , wherein the guiding element is constituted by at least two springs that are arranged in parallel
A method of allowing direct access for a web browser to local resources of a client computer device controlled by a local operating system , wherein a web server hosting a shipping application executes said shipping application in response to web page requests received from said web browser through a first communication channel , said method comprising the steps of: - requesting to a shipping server agent by said web browser through a third communication channel a usage of a web service of said shipping server agent for accessing said local resources, said shipping server agent running as an embedded web server whose client is said web browser, - requesting to said shipping application by said shipping server agent through a second communication channel an authorization for said usage of a web service by said web browser, - providing an authorization response from said shipping application directly to said shipping server agent through the second communication channel regarding said usage of a web service by said web browser, and - accessing local resources by said shipping server agent according to said requesting by said web browser. - requesting to a shipping server agent by said web browser through a third communication channel a usage of a web service of said shipping server agent for accessing said local resources, said shipping server agent running as an embedded web server whose client is said web browser, - requesting to said shipping application by said shipping server agent through a second communication channel an authorization for said usage of a web service by said web browser, - providing an authorization response from said shipping application directly to said shipping server agent through the second communication channel regarding said usage of a web service by said web browser, and - accessing local resources by said shipping server agent according to said requesting by said web browser.
A system for performing a microwave ablation procedure, the system comprising: an ablation probe configured to couple to an electrosurgical generator and including an electromagnetic sensor; a tracking system configured to track movement of the ablation probe in three-dimensional space and generate position and orientation data of the ablation probe based on a position and orientation of the electromagnetic sensor; and a computing device operably coupled to the tracking system, the computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: receive the position and orientation data of the ablation probe from the tracking system; display a graphical representation of the ablation probe on a display based on the received position and orientation data of the ablation probe; characterised in that said instructions, when executed by the processor, additionally cause the computing device to: filter axial shift data from the position and orientation data of the ablation probe, the filtered axial shift data corresponding to axial movement of the ablation probe along a trajectory axis; and generate an alert based on the filtered axial shift data. an ablation probe configured to couple to an electrosurgical generator and including an electromagnetic sensor; a tracking system configured to track movement of the ablation probe in three-dimensional space and generate position and orientation data of the ablation probe based on a position and orientation of the electromagnetic sensor; and a computing device operably coupled to the tracking system, the computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: receive the position and orientation data of the ablation probe from the tracking system; display a graphical representation of the ablation probe on a display receive the position and orientation data of the ablation probe from the tracking system; display a graphical representation of the ablation probe on a display based on the received position and orientation data of the ablation probe; characterised in that said instructions, when executed by the processor, additionally cause the computing device to: filter axial shift data from the position and orientation data of the ablation probe, the filtered axial shift data corresponding to axial movement of the ablation probe along a trajectory axis; and generate an alert based on the filtered axial shift data. filter axial shift data from the position and orientation data of the ablation probe, the filtered axial shift data corresponding to axial movement of the ablation probe along a trajectory axis; and generate an alert based on the filtered axial shift data.
An electric storage device comprising: a container; an electrode assembly contained in the container, the electrode assembly comprising a positive electrode comprising a positive electrode substrate and a positive electrode active material layer formed on the positive electrode substrate, the positive electrode active material layer containing a positive electrode active material, a negative electrode comprising a negative electrode substrate and a negative electrode active material layer formed on the negative electrode substrate, the negative electrode active material layer containing a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode, the separator having a thickness of 15 μm or more and 25 μm or less; and an electrolyte contained in the container, wherein the negative electrode active material contains at least one of hard carbon and graphite, and wherein the separator is configured such that a stress that is caused at a specific compressed depth in the separator, which corresponds to 5% of the thickness of the negative electrode active material layer, is 0.5 MPa or more and 14 MPa or less. a container; an electrode assembly contained in the container, the electrode assembly comprising a positive electrode comprising a positive electrode substrate and a positive electrode active material layer formed on the positive electrode substrate, the positive electrode active material layer containing a positive electrode active material, a negative electrode comprising a negative electrode substrate and a negative electrode active material layer formed on the negative electrode substrate, the negative electrode active material layer containing a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode, the separator having a thickness of 15 μm or more and 25 μm or less; and a positive electrode comprising a positive electrode substrate and a positive electrode active material layer formed on the positive electrode substrate, the positive electrode active material layer containing a positive electrode active material, a negative electrode comprising a negative electrode substrate and a negative electrode active material layer formed on the negative electrode substrate, the negative electrode active material layer containing a negative electrode active material, and a separator interposed between the positive electrode and the negative electrode, the separator having a thickness of 15 μm or more and 25 μm or less; and an electrolyte contained in the container, wherein the negative electrode active material contains at least one of hard carbon and graphite, and wherein the separator is configured such that a stress that is caused at a specific compressed depth in the separator, which corresponds to 5% of the thickness of the negative electrode active material layer, is 0.5 MPa or more and 14 MPa or less.
Cold-rolled flat steel product having the following composition in % by weight: C: 0.12 - 0.18%; Si: 0.05 - 0.2%; Mn: 1.9 - 2.2%; Al: 0.2 - 0.5%; Cr: 0.05 - 0.2%; Nb: 0.01 - 0.06%; balance: Fe and unavoidable preparation-related impurities, which include contents of phosphorus, sulfur, nitrogen, molybdenum, boron, titanium, nickel and copper with the proviso that the following respectively apply in respect of their contents: P: ≤ 0.02%, S: ≤ 0.003%, N: ≤ 0.008%, Mo: ≤ 0.1%, B: ≤ 0.0007%, Ti: ≤ 0.01%, Ni: ≤ 0.1%, Cu: ≤ 0.1%, wherein the sum total of the contents of C, Si, Mn, Al, Cr and Nb is 2.5-3.5% by weight, and said cold-rolled steel product having a microstructure that consists of 50-90% by volume of ferrite, including bainitic ferrite, of 5-40% by volume of martensite, of up to 15% by volume of residual austenite and up to 10% by volume of other unavoidable preparation-related microstructure constituents, wherein its yield point R p0.2 is at least 440 MPa, its tensile strength Rm is at least 780 MPa, its elongation at break A80 is at least 14%, its n 10-20/Ag is at least 0.1 and its BH2 value is at least 25 MPa, determined in each case in a tensile test according to DIN EN ISO 6892, sample shape 2, longitudinal samples.
A method for power production comprising: carrying out a closed or semi-closed power production cycle wherein: CO 2 is circulated as a working fluid that is repeatedly compressed and expanded for power production; a first fuel source is combusted in a combustor to heat the working fluid after the working fluid is compressed and before the working fluid is expanded for power production; and a recuperator heat exchanger is used to re-capture heat of combustion for heating of the working fluid; characterized in that the method further comprises heating the working fluid with heat that is formed outside of the combustor using a second fuel source that is oxidized without substantial combustion, said heating being in addition to the re-captured heat of combustion, wherein said second fuel source is a dilute hydrocarbon stream comprising a diluent and one or more hydrocarbons in a concentration that is below the lower explosive limit (LEL) of the one or more hydrocarbons. carrying out a closed or semi-closed power production cycle wherein: CO 2 is circulated as a working fluid that is repeatedly compressed and expanded for power production; a first fuel source is combusted in a combustor to heat the working fluid after the working fluid is compressed and before the working fluid is expanded for power production; and a recuperator heat exchanger is used to re-capture heat of combustion for heating of the working fluid; CO 2 is circulated as a working fluid that is repeatedly compressed and expanded for power production; a first fuel source is combusted in a combustor to heat the working fluid after the working fluid is compressed and before the working fluid is expanded for power production; and a recuperator heat exchanger is used to re-capture heat of combustion for heating of the working fluid; characterized in that the method further comprises heating the working fluid with heat that is formed outside of the combustor using a second fuel source that is oxidized without substantial combustion, said heating being in addition to the re-captured heat of combustion, wherein said second fuel source is a dilute hydrocarbon stream comprising a diluent and one or more hydrocarbons in a concentration that is below the lower explosive limit (LEL) of the one or more hydrocarbons.
A method of examining or diagnosing for cancer in a non-primate mammal, wherein the mammal is a dog or a cat, comprising: evaluating taxic behavior of nematodes toward a urine sample from the subject, wherein the taxic behavior of nematodes is evaluated by measuring a difference or ratio between the number of nematodes approaching the test sample and the number of nematodes far from the test sample.