mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing delamination of a polymer film, said method comprising: providing an optically transparent carrier plate ; depositing a first light-absorptive material layer onto said carrier plate ; depositing a thermal retardation layer onto said first light-absorptive material layer ; characterised in that the method comprises depositing a second light-absorptive material layer onto said thermal retardation layer ; depositing a light-reflective material layer onto said second light-absorptive material layer ; depositing a polymer film on said light-reflective material layer and said second light-absorptive material layer ; forming electronic structures on said polymer film; and irradiating said carrier plate with a pulsed light to heat said light-absorptive material layers in order to release said polymer film from said carrier plate. providing an optically transparent carrier plate ; depositing a first light-absorptive material layer onto said carrier plate ; depositing a thermal retardation layer onto said first light-absorptive material layer ; characterised in that the method comprises depositing a second light-absorptive material layer onto said thermal retardation layer ; depositing a light-reflective material layer onto said second light-absorptive material layer ; depositing a polymer film on said light-reflective material layer and said second light-absorptive material layer ; forming electronic structures on said polymer film; and irradiating said carrier plate with a pulsed light to heat said light-absorptive material layers in order to release said polymer film from said carrier plate.
A shaving aid composition comprising: a glycol, an humectant, including polyhydric alcohols selected from the group consisting of glycerin, sorbitol and mixture thereof a soap base which is sodium and/or potassium cocoate, stearate, palmitate, myristate and mixtures thereof, and a surfactant being sodium laureth sulfate, characterized in that it further comprises: about 0.5 to 4%, preferably 1.5 to 3.5% by weight of a film former wherein the film former is a mixture comprising hydrogenated polycyclopentadiene, polyethylene, copernica cerifera wax and tocopherol said percentage being calculated with respect to the total weight of the shaving aid composition. a glycol, an humectant, including polyhydric alcohols selected from the group consisting of glycerin, sorbitol and mixture thereof a soap base which is sodium and/or potassium cocoate, stearate, palmitate, myristate and mixtures thereof, and a surfactant being sodium laureth sulfate, characterized in that it further comprises: about 0.5 to 4%, preferably 1.5 to 3.5% by weight of a film former wherein the film former is a mixture comprising hydrogenated polycyclopentadiene, polyethylene, copernica cerifera wax and tocopherol said percentage being calculated with respect to the total weight of the shaving aid composition. about 0.5 to 4%, preferably 1.5 to 3.5% by weight of a film former wherein the film former is a mixture comprising hydrogenated polycyclopentadiene, polyethylene, copernica cerifera wax and tocopherol said percentage being calculated with respect to the total weight of the shaving aid composition.
A packaging device comprising: a multi-layer material configured to define an interior space and an opening to the interior space, wherein at least a portion of the multi-layer material comprises: an inner layer made of a first biodegradable material, an outer layer made of a second biodegradable material, and a heating element layer encapsulated between the inner and outer layers, wherein the heating element layer provides resistive heating to the interior space when supplied with electrical power from a power source; characterised by a coil electrically connected to the heating element layer and configured for inductively coupling with an external power source to provide the electrical power to the heating element layer, wherein the heating element layer is biodegradable. a multi-layer material configured to define an interior space and an opening to the interior space, wherein at least a portion of the multi-layer material comprises: an inner layer made of a first biodegradable material, an outer layer made of a second biodegradable material, and a heating element layer encapsulated between the inner and outer layers, wherein the heating element layer provides resistive heating to the interior space when supplied with electrical power from a power source; characterised by an inner layer made of a first biodegradable material, an outer layer made of a second biodegradable material, and a heating element layer encapsulated between the inner and outer layers, wherein the heating element layer provides resistive heating to the interior space when supplied with electrical power from a power source; characterised by a coil electrically connected to the heating element layer and configured for inductively coupling with an external power source to provide the electrical power to the heating element layer, wherein the heating element layer is biodegradable.
A method of diffusion bonding of a lead zirconate-titanate, PZT, piezoelectric crystal to a metal wear plate for fabrication of a high temperature ultrasonic transducer comprising the steps of: i. Depositing a first coating of a noble metal on a bonding surface of a PZT crystal; ii. Depositing a second coating of the noble metal on a bonding surface of a metal wear plate; iii. Bringing the bonding surfaces of the noble metal coated PZT crystal of step (i) and the bonding surface of the noble metal coated metal wear plate of step (ii) into contact with each other, and pressing and heating at a temperature ranging from 270 to 400 0 C under vacuum to form a metallic bond, to obtain a PZT piezoelectric crystal diffusion-bonded to the metal wear plate by a noble metal interlayer; wherein the metal wear plate is selected from nickel and nickel alloys; and wherein the metal interlayer is able to withstand a prolonged exposure to high temperature up to 250°C and repeated thermal cycling. i. Depositing a first coating of a noble metal on a bonding surface of a PZT crystal; ii. Depositing a second coating of the noble metal on a bonding surface of a metal wear plate; iii. Bringing the bonding surfaces of the noble metal coated PZT crystal of step (i) and the bonding surface of the noble metal coated metal wear plate of step (ii) into contact with each other, and pressing and heating at a temperature ranging from 270 to 400 0 C under vacuum to form a metallic bond, to obtain a PZT piezoelectric crystal diffusion-bonded to the metal wear plate by a noble metal interlayer;
A compound or salt of Formula V: wherein Y is S(O); Z is O or 2H; R 5 is 3-phenylpropyl, -CH 2 CH(OH)CH 3 , or -CH 2 CH(OH)CH 2 Ph; and each instance of X is located at the para or meta position and is hydrogen, fluoro, methyl, or CF 3 . Y is S(O); Z is O or 2H; R 5 is 3-phenylpropyl, -CH 2 CH(OH)CH 3 , or -CH 2 CH(OH)CH 2 Ph; and each instance of X is located at the para or meta position and is hydrogen, fluoro, methyl, or CF 3 .
An agricultural vehicle , comprising: a chassis defining a rear ; a header carried by said chassis and configured to collect crop material from a field; a shredding assembly carried by said chassis that receives crop material collected by said header , said shredding assembly including: a shredder configured to shred received crop material; and a shredder pan carried by said chassis and including a shred assister configured to cooperate with said shredder to shred crop material; and a track carried by said chassis ; characterized by : said shredder pan including at least one track follower in contact with said track that allows said shredder pan to move along said track from an operating position under said shredder toward a servicing position away from said shredder and at said rear of said chassis . a chassis defining a rear ; a header carried by said chassis and configured to collect crop material from a field; a shredding assembly carried by said chassis that receives crop material collected by said header , said shredding assembly including: a shredder configured to shred received crop material; and a shredder pan carried by said chassis and including a shred assister configured to cooperate with said shredder to shred crop material; and a shredder configured to shred received crop material; and a shredder pan carried by said chassis and including a shred assister configured to cooperate with said shredder to shred crop material; and a track carried by said chassis ; characterized by : said shredder pan including at least one track follower in contact with said track that allows said shredder pan to move along said track from an operating position under said shredder toward a servicing position away from said shredder and at said rear of said chassis .
A method for authorizing use of a biological fluid processing instrument with a disposable component, the disposable component received in the biological fluid processing instrument , the method comprising: acknowledging communication between a controller computer and a validation computer in the biological fluid processing instrument ; accepting user input of an authorization code associated with the disposable component via an interface on the validation computer , wherein the authorization code allows for the use of a certain number of disposable components, wherein the authorization code is generated using a validation code, a number of disposable components used and a number of disposable components authorized for the biological fluid processing instrument ; verifying the authorization code using the validation computer ; and disabling the biological fluid processing instrument upon a failure verifying the authorization code. acknowledging communication between a controller computer and a validation computer in the biological fluid processing instrument ; accepting user input of an authorization code associated with the disposable component via an interface on the validation computer , wherein the authorization code allows for the use of a certain number of disposable components, wherein the authorization code is generated using a validation code, a number of disposable components used and a number of disposable components authorized for the biological fluid processing instrument ; verifying the authorization code using the validation computer ; and disabling the biological fluid processing instrument upon a failure verifying the authorization code.
A system comprising: a portable air sensing device configured to sense a concentration of a component gas in surrounding air and wirelessly transmit the sensed concentration; an electronic interface device suitable for being positioned within a cockpit of an aircraft and communicatively coupled with the portable air sensing device, the electronic interface device configured to: receive the wirelessly transmitted concentration from the portable air sensing device; and generate, for display, an indication of the received concentration in relation to a defined threshold maximum concentration of the component gas; and a portable computing device having a display, the portable computing device being separate from and communicatively coupled to the electronic interface device and configured to display the indication of the received concentration of the component gas in relation to the defined threshold maximum concentration of the component gas. a portable air sensing device configured to sense a concentration of a component gas in surrounding air and wirelessly transmit the sensed concentration; an electronic interface device suitable for being positioned within a cockpit of an aircraft and communicatively coupled with the portable air sensing device, the electronic interface device configured to: receive the wirelessly transmitted concentration from the portable air sensing device; and generate, for display, an indication of the received concentration in relation to a defined threshold maximum concentration of the component gas; and receive the wirelessly transmitted concentration from the portable air sensing device; and generate, for display, an indication of the received concentration in relation to a defined threshold maximum concentration of the component gas; and a portable computing device having a display, the portable computing device being separate from and communicatively coupled to the electronic interface device and configured to display the indication of the received concentration of the component gas in relation to the defined threshold maximum concentration of the component gas.
A terminal for connecting a conductor to a connecting bolt of an electrical apparatus, which is provided with an external thread , wherein the terminal has a conductor channel and a threaded hole for receiving a pressure screw, and wherein the threaded hole for receiving the pressure screw is oriented perpendicular to the axis of the conductor channel , characterized in that the terminal has a first and a second threaded hole , which cross each other perpendicularly, wherein the internal thread of the first and of the second threaded hole match the external thread of the connecting bolt , so that the terminal can be screwed onto the connecting bolt in two different orientations, that the conductor channel runs along an axis, which is parallel to an axial direction of the first threaded hole, and that the terminal has a second pressure screw , which is screwed into the same threaded hole as the connecting bolt , but in the opposite direction as the connecting bolt.
An electronic monitoring system for an angular position and/or a rotational speed of a wheel in the operation of a vehicle, comprising a rotational speed sensor and a pole wheel arranged axially across from the rotational speed sensor , said pole wheel which can be mounted on a brake disk of a vehicle wheel brake, and which has through-holes distributed uniformly over its circumference, spaced apart by radial fins , wherein the pole wheel has a bulge axially protruding outside of its through-holes and fins , characterized in that a front end face of the rotational speed sensor is placed on the axially protruding bulge , and in that the bulge extends only slightly, such that an air gap of defined width (S) is axially formed between the through-holes and fins on the one side and the front end face of the rotational speed sensor on the other side.
A method for testing a performance of IT infrastructures by monitoring a measurement of the performance of IT infrastructures , said measurement being carried out, the method including the following steps: - iteratively reading and storing a number of measurement results relating to at least one request executed by said IT infrastructure during said measurement being carried out from a measurement result file , - determining whether a time characteristic of the response of the requests used in the load test have elapsed since the execution of the last request and, when this condition is fulfilled: - monitoring a condition of the calculation of a behavior tendency of said IT structure, said condition relating to the number of read and stored measurement results, - calculating a behavior tendency of said computer system, based on at least one measurement result from iterations preceding the fulfillment of said condition and on said reading and storage steps, and - generating an alert message according to said determined tendency. - iteratively reading and storing a number of measurement results relating to at least one request executed by said IT infrastructure during said measurement being carried out from a measurement result file , - determining whether a time characteristic of the response of the requests used in the load test have elapsed since the execution of the last request and, when this condition is fulfilled: - monitoring a condition of the calculation of a behavior tendency of said IT structure, said condition relating to the number of read and stored measurement results, - calculating a behavior tendency of said computer system, based on at least one measurement result from iterations preceding the fulfillment of said condition and on said reading and storage steps, and - generating an alert message according to said determined tendency.
A method , in a user equipment, UE, , comprising: receiving , in a downlink signal having a series of subframes, a beam-formed reference signal in each of a plurality of subframes, wherein the beam-formed reference signals are received in fewer than all of the subframes of the downlink signal; performing mobility management measurements using at least a first subset of the received beam-formed reference signals; and performing radio link monitoring, RLM, using at least some of the first subset of beam-formed reference signals used for the mobility management measurements. receiving , in a downlink signal having a series of subframes, a beam-formed reference signal in each of a plurality of subframes, wherein the beam-formed reference signals are received in fewer than all of the subframes of the downlink signal; performing mobility management measurements using at least a first subset of the received beam-formed reference signals; and performing radio link monitoring, RLM, using at least some of the first subset of beam-formed reference signals used for the mobility management measurements.
Damping module for a vehicle seat for damping shock-like vertical movements of the vehicle in the event of pressure waves caused in particular by mines and IEDs, wherein the damping module has a stand which can be connected in a positionally fixed manner to a vehicle and on which a vehicle seat can be mounted, and wherein the damping module has a damping element for damping the vehicle seat , characterized in that a frame is fastened to the stand , the frame having a first support which is movable in height with respect to the frame and is connected to the damping element mounted on the frame , and said frame furthermore having a second support which is movable in height relative to the first support and is suitable for supporting the vehicle seat , wherein the first and second support are connected to each other via a scissors lever mechanism , and in that the first support is additionally resiliently supported in relation to the stand via at least one spring such that lowering of the first supports by an extent A relative to the stand causes the scissors lever mechanism to be pulled in and therefore the vehicle seat to be lowered by an extent B > A, wherein the first support is connected to an intersecting point of two crossed bars of a scissors lever element of the scissors lever mechanism .
An in-ear headphone assembly , comprising: a rigid shell defining a volume and configured for housing an audio driver, a first side of the rigid shell defining a sound aperture ; a rigid nozzle defining a sound channel extending axially therethrough, the rigid nozzle comprising a distal end configured for insertion at least partially into an ear canal of a user, and a proximal end opposite the distal end ; and a resilient overmold structure permanently molded to the rigid nozzle and the rigid shell , securing the proximal end of the rigid nozzle proximate to the first side of the rigid shell , the resilient overmold structure defining a sound passage acoustically coupling the volume to the sound channel through the sound aperture and the proximal end of the rigid nozzle ; the resilient overmold structure characterized in that the resilient overmold structure includes a shell portion coupled to the first side of the rigid shell and a nozzle portion extending from the shell portion around an outside surface of the rigid nozzle , and wherein the shell portion of the resilient overmold structure includes a recess located in an outer face of the resilient overmold structure and extending at least slightly into the sound aperture at an interface between the shell portion and the nozzle portion to increase flexibility between the rigid nozzle and the rigid shell . a rigid shell defining a volume and configured for housing an audio driver, a first side of the rigid shell defining a sound aperture ; a rigid nozzle defining a sound channel extending axially therethrough, the rigid nozzle comprising a distal end configured for insertion at least partially into an ear canal of a user, and a proximal end opposite the distal end ; and a resilient overmold structure permanently molded to the rigid nozzle and the rigid shell , securing the proximal end of the rigid nozzle proximate to the first side of the rigid shell , the resilient overmold structure defining a sound passage acoustically coupling the volume to the sound channel through the sound aperture and the proximal end of the rigid nozzle ; the resilient overmold structure characterized in that the resilient overmold structure includes a shell portion coupled to the first side of the rigid shell and a nozzle portion extending from the shell portion around an outside surface of the rigid nozzle , and wherein the shell portion of the resilient overmold structure includes a recess located in an outer face of the resilient overmold structure and extending at least slightly into the sound aperture at an interface between the shell portion and the nozzle portion to increase flexibility between the rigid nozzle and the rigid shell .
Slag door for a melting furnace for the production of steel, suitable to be associated with an aperture provided in a lateral wall of the melting furnace and to cooperate with a slag channel provided inside the melting furnace itself, comprising: - a frame on which a sliding closing panel is mounted, configured to selectively assume a lowered position to close said slag channel , in which a lower part of the closing panel substantially abuts on a base surface of the slag channel and a raised position to open said slag channel in which the closing panel is partly or completely raised; - a slag removal device , mounted on said frame and mobile with respect to it, provided at least with a cleaning arm and having at its end a cleaning element configured to be moved inside the slag channel when the closing panel is in the raised position; said slag removal device having a working operating position, when the sliding closing panel is located in the raised opening position, in which the cleaning element moves until it penetrates through the aperture of the melting furnace along the slag channel and exerts its cleaning and descaling action of the slag present in said slag channel , and an inactive operating position in which it is raised and outside the bulk of said aperture of the melting furnace , and wherein the connection between the slag removal device and the frame is of the hinge type, characterised in that the slag removal device is provided with a movement arm hinged with a first end thereof to the frame and with a second end thereof to the cleaning arm , thus defining a double articulation arm. - a frame on which a sliding closing panel is mounted, configured to selectively assume a lowered position to close said slag channel , in which a lower part of the closing panel substantially abuts on a base surface of the slag channel and a raised position to open said slag channel in which the closing panel is partly or completely raised; - a slag removal device , mounted on said frame and mobile with respect to it, provided at least with a cleaning arm and having at its end a cleaning element configured to be moved inside the slag channel when the closing panel is in the raised position; said slag removal device having a working operating position, when the sliding closing panel is located in the raised opening position, in which the cleaning element moves until it penetrates through the aperture of the melting furnace along the slag channel and exerts its cleaning and descaling action of the slag present in said slag channel , and an inactive operating position in which it is raised and outside the bulk of said aperture of the melting furnace , and