mhurhangee/patent-ind-claim-en huggingface dataset:
A method for reading a file through use of a cloud storage service , comprising: receiving by the cloud storage service, from a client device , a request to read at least a portion of a file, wherein the cloud storage service is associated with at least one object storage system ; and sending a cloud file descriptor from the cloud storage service to the client device, wherein the cloud file descriptor includes a plurality of download tokens utilizable to retrieve objects constituting the requested at least a portion of the file from the at least one object storage system; wherein the plurality of download tokens includes at least an indicator of the location of the object and at least one temporary credential, wherein the at least an indicator of the location of the object and the at least one temporary credential are for use by the client device to retrieve the at least a portion of the file from the at least one object storage system without requiring any other authentication of the client device to the at least one object storage system. receiving by the cloud storage service, from a client device , a request to read at least a portion of a file, wherein the cloud storage service is associated with at least one object storage system ; and sending a cloud file descriptor from the cloud storage service to the client device, wherein the cloud file descriptor includes a plurality of download tokens utilizable to retrieve objects constituting the requested at least a portion of the file from the at least one object storage system; wherein the plurality of download tokens includes at least an indicator of the location of the object and at least one temporary credential, wherein the at least an indicator of the location of the object and the at least one temporary credential are for use by the client device to retrieve the at least a portion of the file from the at least one object storage system without requiring any other authentication of the client device to the at least one object storage system.
A method of forming a photovoltaic apparatus , comprising: placing a release sheet over a transparent sheet of a photovoltaic assembly , wherein the release sheet comprises a first plurality of fibers spaced apart in a first direction (X); and the photovoltaic assembly comprises a photovoltaic device including an array of photovoltaic cells (101-104) extending in the first direction (X); and forming a plurality of structures on a first surface of the transparent sheet by performing a laminating process on the release sheet, transparent sheet and the photovoltaic assembly, wherein the release sheet is placed on the transparent sheet before performing the lamination process or during the lamination process, wherein the photovoltaic device includes a plurality of serial interconnects disposed between and electrically connecting consecutive photovoltaic cells of the array; and each fiber of the first plurality of fibers has a length extending in a second direction (Y) and overlying a length of one of the serial interconnects extending in the second direction (Y). placing a release sheet over a transparent sheet of a photovoltaic assembly , wherein the release sheet comprises a first plurality of fibers spaced apart in a first direction (X); and the photovoltaic assembly comprises a photovoltaic device including an array of photovoltaic cells (101-104) extending in the first direction (X); and the release sheet comprises a first plurality of fibers spaced apart in a first direction (X); and the photovoltaic assembly comprises a photovoltaic device including an array of photovoltaic cells (101-104) extending in the first direction (X); and forming a plurality of structures on a first surface of the transparent sheet by performing a laminating process on the release sheet, transparent sheet and the photovoltaic assembly, wherein the release sheet is placed on the transparent sheet before performing the lamination process or during the lamination process, wherein the photovoltaic device includes a plurality of serial interconnects disposed between and electrically connecting consecutive photovoltaic cells of the array; and each fiber of the first plurality of fibers has a length extending in a second direction (Y) and overlying a length of one of the serial interconnects extending in the second direction (Y).
A door drive with an output shaft to couple the door drive to a force transmission element , characterized in that the output shaft comprises a hollow shaft and a shaft insert , wherein the shaft insert can be inserted into the hollow shaft , wherein the shaft insert has at least one first clamping element and at least one second clamping element , wherein the clamping elements of the shaft insert can be composed such that they form a substantially cylindrical body, wherein both clamping elements have the shape of a cylinder, wherein in each case one of the two surfaces of the cylinder runs obliquely to the symmetry axis of the cylinder, wherein the oblique surfaces of the clamping elements intersect the symmetry axis of the respective cylinder at the same angle, wherein in the assembled arrangement of the clamping elements , the oblique surfaces of the cylinders form the contact surfaces between the clamping elements , wherein the clamping elements of the shaft insert can be moved into a second spatial arrangement from a first spatial arrangement, through relative displacement transverse to the axis of rotation of the hollow shaft in relation to one another, wherein the displacement of the first clamping element takes place relative to the second clamping element in this case along the contact surface of the clamping elements , wherein the shaft insert can be moved in the hollow shaft in the first spatial arrangement and the shaft insert is fixed in a force-fitting and/or positive-locking manner in the hollow shaft in the second spatial arrangement.
A dental preparation cuff for exposing a transition area between a tooth neck of a prepared tooth and surrounding gums , - comprising a tooth opening for placement on the tooth, having a peripheral wall with an edge portion tapering in wedge-shaped manner radially inwards in cross-section, - made of a material having a Shore hardness in the range between 70A and 95A, wherein the preparation cuff is characterized in that an outer wedge wall section of the peripheral wall has at least one recess which is recessed relative to the surrounding wedge wall section , that a circumferential inner web remains between the at least one recess and an inner peripheral edge portion of the peripheral wall , which delimits a circumference of the tooth opening , and that a circumferential outer web remains between the at least one recess and an outer peripheral edge portion of the peripheral wall , which delimits an outer circumference of the preparation cuff in the region of the tooth opening . - comprising a tooth opening for placement on the tooth, having a peripheral wall with an edge portion tapering in wedge-shaped manner radially inwards in cross-section, - made of a material having a Shore hardness in the range between 70A and 95A, wherein the preparation cuff is characterized in that an outer wedge wall section of the peripheral wall has at least one recess which is recessed relative to the surrounding wedge wall section , that a circumferential inner web remains between the at least one recess and an inner peripheral edge portion of the peripheral wall , which delimits a circumference of the tooth opening , and that a circumferential outer web remains between the at least one recess and an outer peripheral edge portion of the peripheral wall , which delimits an outer circumference of the preparation cuff in the region of the tooth opening .
An aqueous germicidal use solution composition, having a pH of 1 to 5, comprising: between 0.05% to 5% by weight of formic acid; between 0.05% to 5% by weight of lactic acid; between 0 and 5% by weight of one or more non-ionic surfactants; and between 0.1% to 5% by weight of two or more anionic surfactants, comprising α-olefin sulfonate and an alkyl sulfate. between 0.05% to 5% by weight of formic acid; between 0.05% to 5% by weight of lactic acid; between 0 and 5% by weight of one or more non-ionic surfactants; and between 0.1% to 5% by weight of two or more anionic surfactants, comprising α-olefin sulfonate and an alkyl sulfate.
An array substrate, comprising a substrate and a thin film field effect transistor and a data line formed on the substrate , the thin film field effect transistor comprising a gate electrode , an active layer , a source electrode and a drain electrode , and a gate insulating layer being formed between the gate electrode and the active layer , and a protection layer formed between the gate insulating layer and the data line and being in direct contact with the data line ; and the active layer and the protection layer are provided on the same layer and have the same material, characterized in that the data line extends over the protection layer , and a part of the data line directly contacts with the gate insulating layer .
A cable connector comprising: an outer shell having a bore , the outer shell extending between a mating end and a cable end , the outer shell having latch pockets ; a shield received in the outer shell , the shield dividing the bore into chambers , the shield and the outer shell providing shielding for the chambers ; contact holders received in corresponding chambers , each contact holder including at least one contact channel , each contact holder including a deflectable latch , the latch having a latching head at an distal end of the latch configured to be received in the corresponding latch pocket of the outer shell to axially secure the contact holder in the outer shell , the latch having an interference bump at an inner end of the latch configured to engage the shield to press the latching head of the latch outward; and contacts received in corresponding contact channels of the corresponding contact holders , the contacts held in the bore of the outer shell by the contact holders , each contact extending between a mating end and a terminating end, the terminating end configured to be terminated to a wire of a cable . an outer shell having a bore , the outer shell extending between a mating end and a cable end , the outer shell having latch pockets ; a shield received in the outer shell , the shield dividing the bore into chambers , the shield and the outer shell providing shielding for the chambers ; contact holders received in corresponding chambers , each contact holder including at least one contact channel , each contact holder including a deflectable latch , the latch having a latching head at an distal end of the latch configured to be received in the corresponding latch pocket of the outer shell to axially secure the contact holder in the outer shell , the latch having an interference bump at an inner end of the latch configured to engage the shield to press the latching head of the latch outward; and contacts received in corresponding contact channels of the corresponding contact holders , the contacts held in the bore of the outer shell by the contact holders , each contact extending between a mating end and a terminating end, the terminating end configured to be terminated to a wire of a cable .
Adhesive tape comprising at least one foamed layer and at least one pressure-sensitive adhesive layer, characterized in that a pressure-sensitive adhesive layer is disposed on both sides of the foamed layer, where the pressure-sensitive adhesive layer comprises in each case at least one poly(meth)acrylate and the poly(meth)acrylate is crosslinked with at least one covalent and at least one coordinative crosslinker; and both pressure-sensitive adhesive layers are completely identical. at least one foamed layer and at least one pressure-sensitive adhesive layer, characterized in that a pressure-sensitive adhesive layer is disposed on both sides of the foamed layer, where the pressure-sensitive adhesive layer comprises in each case at least one poly(meth)acrylate and the poly(meth)acrylate is crosslinked with at least one covalent and at least one coordinative crosslinker; and both pressure-sensitive adhesive layers are completely identical.
A method implemented in a mobile radio network node of a wireless communication network , the method comprising: performing one or more procedures that: estimate a position of the mobile radio network node relative to two or more additional nodes, wherein a position estimate of the two or more additional nodes is received by exchanging messages between the mobile radio network node and the two or more additional nodes, wherein said two or more additional nodes are mobile radio network nodes (602 and 602(N)); and synchronize timing of the mobile radio network node relative to the two or more additional nodes, wherein the one or more procedures to estimate the position and synchronize the timing comprise a precision time protocol, PTP, procedure to make PTP measurements, and wherein the one or more procedures to estimate the position and synchronize the timing comprise using the PTP measurements to estimate clock skew between the mobile radio network node and one of the two or more additional nodes, estimate a time offset between the mobile radio network node and the one of the two or more additional nodes, and determine a distance between the mobile radio network node and the one of the two or more additional nodes; performing a measurement on a signal from a transmitting node , the measurement being a time of arrival, TOA, of the signal at the mobile radio network node; and performing one or more actions that use the measurement for calculating a position of the transmitting node . estimate a position of the mobile radio network node relative to two or more additional nodes, wherein a position estimate of the two or more additional nodes is received by exchanging messages between the mobile radio network node and the two or more additional nodes, wherein said two or more additional nodes are mobile radio network nodes (602 and 602(N)); and synchronize timing of the mobile radio network node relative to the two or more additional nodes, wherein the one or more procedures to estimate the position and synchronize the timing comprise a precision time protocol, PTP, procedure to make PTP measurements, and wherein the one or more procedures to estimate the position and synchronize the timing comprise using the PTP measurements to estimate clock skew between the mobile radio network node and one of the two or more additional nodes, estimate a time offset between the mobile radio network node and the one of the two or more additional nodes, and determine a distance between the mobile radio network node and the one of the two or more additional nodes; performing a measurement on a signal from a transmitting node , the measurement being a time of arrival, TOA, of the signal at the mobile radio network node; and performing one or more actions that use the measurement for calculating a position of the transmitting node .
A method for wireless communication at a user equipment , comprising: transmitting a first message comprising a random access channel, RACH, preamble; receiving a second message comprising random access response, RAR, in response to the RACH preamble; transmitting a third message in response to the RAR, and characterized by : receiving a fourth message in response to the third message, wherein the fourth message comprises at least one timing advance, TA, parameter; and communicating one or more messages based on the TA parameter. transmitting a first message comprising a random access channel, RACH, preamble; receiving a second message comprising random access response, RAR, in response to the RACH preamble; transmitting a third message in response to the RAR, and characterized by : receiving a fourth message in response to the third message, wherein the fourth message comprises at least one timing advance, TA, parameter; and communicating one or more messages based on the TA parameter. receiving a fourth message in response to the third message, wherein the fourth message comprises at least one timing advance, TA, parameter; and communicating one or more messages based on the TA parameter.
A device implantable into the intestinal cavity, comprising a reactor and an element for fastening the reactor comprising an anchor configured to be fastened in or on a tissue wall, the fastening element allowing holding the reactor in place in the intestinal cavity, the reactor is configured to enclose or support an active product, in the form of at least one of an enzyme and a microorganism, the microorganism being selected from a bacterium or a yeast.
A forage harvester configured for chopping harvested crops and producing a stream of chopped crop material, the harvester comprising a blower drum mounted in a blower housing and rotatable about a rotation axis oriented transversally with respect to the stream of crop material, for propelling the stream of crop material into an outlet duct of the harvester, wherein the blower drum has an open structure which allows a flow of air in the axial direction of the drum, and wherein the blower drum is mounted between two sidewalls of the blower housing, at least one of the sidewalls comprising one or more air inlet openings , characterised in that the harvester comprises at least one set of axial flow turbine blades , mounted between the blower drum and one or both of the sidewalls of the blower housing, the blades being rotatable about the blower drum's rotation axis .
Current collector system for a vehicle (F) that can be moved along a power rail arrangement (S), with at least one current collector carriage and current collector contacts arranged thereon which can be connected to power rails (ST) of the current collector arrangement (S), and a telescopic arm that can be or is fastened to the vehicle (F) which can be extended and/or retracted by means of an adjusting drive, characterised in that the adjusting drive has at least one rigid chain arrangement , which is driven by at least one first rigid chain drive , wherein the rigid chain arrangement also adjusts a current collector carriage in the vertical direction (R V ).
An in-the-ear hearing aid device comprising • at least one electro-acoustic transducer , and • at least two sensors , and one or more signal processors, wherein said at least one electro-acoustic transducer comprises a capsule enclosing a transducer sound active part and a transducer air volume , wherein said transducer sound active part comprises at least one of a membrane, a diaphragm, an electromagnetic mechanism, and a sound vibrating unit, and said transducer air volume is air volume which is enclosed by said capsule and which is in fluid-connection with said transducer sound active part, and wherein at least a portion of each of said at least two sensors is provided within said capsule and said transducer air volume, and wherein said one of more signal processors is configured to receive a physiological signal from one of said at least two sensors and a footstep signal from another one of said at least two sensors. • at least one electro-acoustic transducer , and • at least two sensors , and one or more signal processors,
A halogen-free resin composition, which is characterized in that , based on 100 parts by weight of the organic solid matter, comprising the following four substances: (A) dicyclopentadiene-type benzoxazine resin: 52-80 parts by weight; (B) dicyclopentadiene-type epoxy resin; (C) dicyclopentadiene-type novolac hardener; (D) phosphorus-containing flame retardant. (A) dicyclopentadiene-type benzoxazine resin: 52-80 parts by weight; (B) dicyclopentadiene-type epoxy resin; (C) dicyclopentadiene-type novolac hardener; (D) phosphorus-containing flame retardant.
Qualification method of a sample that is to be examined for and using cryogenic electron microscopy, comprising mounting the sample on a sample mount provided for the cryogenic electron microscopy, characterised by then examining the sample arranged on the sample mount by means of dynamic light scattering using a laser beam aimed at the sample, the laser beam being guided through the sample without impinging on the sample mount provided for the cryogenic electron microscopy, and the particle size distribution inside the sample being determined by means of the dynamic light scattering.
A clamp comprising: - a first clamp portion having a first end defining a recess and a second end configured to be coupled to a first structure; - a second clamp portion having a first end configured to be coupled to a second structure and a second end configured to be received in the recess of the first clamp portion ; and - a shear pin configured to be coupled to the first clamp portion such that the shear pin extends into the recess and the second clamp portion to couple the second clamp portion to the first clamp portion ; wherein the clamp is configured such that the shear pin will shear if: - a first load that exceeds a first threshold is applied to the second clamp portion in a first direction ; or - a second load that exceeds a second threshold is applied to the second clamp portion in a second direction ; - where the first threshold is greater than the second threshold - where, when the second clamp portion is coupled to the second structure, the first direction aligns with the direction of the weight of the second structure, and the first direction is parallel with and opposite to second direction . - a first clamp portion having a first end defining a recess and a second end configured to be coupled to a first structure; - a second clamp portion having a first end configured to be coupled to a second structure and a second end configured to be received in the recess of the first clamp portion ; and - a shear pin configured to be coupled to the first clamp portion such that the shear pin extends into the recess and the second clamp portion to couple the second clamp portion to the first clamp portion ; wherein the clamp is configured such that the shear pin will shear if: - a first load that exceeds a first threshold is applied to the second clamp portion in a first direction ; or - a second load that exceeds a second threshold is applied to the second clamp portion in a second direction ; - where the first threshold is greater than the second threshold - where, when the second clamp portion is coupled to the second structure, the first direction aligns with the direction of the weight of the second structure, and the first direction is parallel with and opposite to second direction .