mhurhangee/patent-ind-claim-en huggingface dataset:
A sock comprising a toe area , wherein said toe area is divided to at least two sub-areas , wherein at least two adjacent sub-areas abut each other along a first borderline which is substantially parallel to a central axis of the sock, wherein the at least two adjacent sub-areas are integrally formed with each other along the first borderline by knitting, the sock being characterized in that a first of said two sub-areas includes two parallel and adjacent knitted lines , each one of the adjacent knitted lines including corresponding abutting columns 1, 2, 3, ..., n, n+1, ..., k; 1', 2', 3', ..., n', n'+1, ..., k', each column representing a potential location of a knitted loop, wherein columns 1 to n-2 and n of one of the knitted lines include knitted loops while columns n-1 and n+1 to k do not include knitted loops, wherein columns 1' to n'-1 of the other of the adjacent knitted lines include knitted loops while columns n' to k' do not include knitted loops, wherein a second of said two sub-areas includes two parallel and adjacent knitted lines , each one of the adjacent knitted lines including corresponding abutting columns 1*, 2*, 3*, ..., m*, m*+1, ..., k*; 1**, 2**, 3**, ..., m**, m**+1, ..., k**, each column representing a potential location of a knitted loop, wherein columns 1* to m*-2 and m* of one of the knitted lines include knitted loops while columns m*-1 to and m*+1 to k* do not include knitted loops, wherein columns 1** to m**-1 of the other of the adjacent knitted lines include knitted loops while columns m** to k** do not include knitted loops, wherein a separating zone forming the border line includes first columns n, n-1 in parallel to n', n'-1 in parallel to m*, m*-1 in parallel to m**, m**-1, which are repeated multiple times to result in a zipper like structure.
System for mounting at least one solar panel on a substantially flat mounting surface, comprising: - at least one base element configured to be positioned upon a substantially flat mounting surface, - at least one support structure configured for supporting at least part of at least one solar panel, wherein the support structure is connected to the base element , wherein the support structure comprises: ∘ at least one retaining element for retaining at least part of a first edge of the solar panel, and - at least one clamping element configured for clampingly engaging at least part of a second edge the solar panel, wherein the base element and the clamping element are mutually displaceable, characterized in that the base element is substantially elongated, in that the clamping element encloses at least part of the base element , and in that the clamping element and the base element comprise complementary fastening members configured for fixating at least one mutual position of the base element and the clamping element . - at least one base element configured to be positioned upon a substantially flat mounting surface, - at least one support structure configured for supporting at least part of at least one solar panel, wherein the support structure is connected to the base element , wherein the support structure comprises: ∘ at least one retaining element for retaining at least part of a first edge of the solar panel, and ∘ at least one retaining element for retaining at least part of a first edge of the solar panel, - at least one clamping element configured for clampingly engaging at least part of a second edge the solar panel,
A mask assembly for use in providing positive pressure respiratory therapy, comprising: a mask seal ; and a mask shell ; wherein the mask assembly is configured to be fully positioned lower than a bridge of a nose of a face of a user and configured to provide an exposed bridge of the nose of the user, the mask seal being connected to the mask shell , the mask seal comprising a nasal region comprising at least one nasal opening , the mask seal comprising a first paddle on a first side of the nasal region and a second paddle on a second side of the nasal region , the first paddle configured to contact one side of the nose of the user and the second paddle configured to contact the other side of the nose of the user; wherein the mask seal varies in thickness and wherein each of the paddles comprises a support in the form of a suspension member , which assists in maintaining a desired shape of the paddles , wherein the supports comprise a generally triangular shape with a base of the triangle positioned rearwardly of a tip of the triangle; and wherein the suspension members extend from a user-contacting surface of the mask seal toward the mask shell. a mask seal ; and a mask shell ; wherein the mask assembly is configured to be fully positioned lower than a bridge of a nose of a face of a user and configured to provide an exposed bridge of the nose of the user, the mask seal being connected to the mask shell , the mask seal comprising a nasal region comprising at least one nasal opening , the mask seal comprising a first paddle on a first side of the nasal region and a second paddle on a second side of the nasal region , the first paddle configured to contact one side of the nose of the user and the second paddle configured to contact the other side of the nose of the user; wherein the mask seal varies in thickness and wherein each of the paddles comprises a support in the form of a suspension member , which assists in maintaining a desired shape of the paddles , wherein the supports comprise a generally triangular shape with a base of the triangle positioned rearwardly of a tip of the triangle; and wherein the suspension members extend from a user-contacting surface of the mask seal toward the mask shell.
A camera system (100; 200), comprising: a first camera (120-1) configured to provide a first sequence of images of an environment; a first motion measurement unit (110-1) configured to provide first motion data of the first camera (120-1); at least one second camera (120-2) configured to provide a second sequence of images of the environment; a second motion measurement unit (110-2) configured to provide second motion data of the second camera (120-2); and a data processing circuitry (130; 230) configured to determine a relative pose of the first camera (120-1) and the second camera (120-2) towards each other from a correlation between the first motion data and the second motion data, determine a position of a target within the environment from a correlation between the first sequence of images and the first motion data; register the position of the target in a digital map of the environment; and detect the target within the second sequence of images using the digital map, the motion data, and the relative pose of the first and the second camera (120-1; 120-2) towards each other. a first camera (120-1) configured to provide a first sequence of images of an environment; a first motion measurement unit (110-1) configured to provide first motion data of the first camera (120-1); at least one second camera (120-2) configured to provide a second sequence of images of the environment; a second motion measurement unit (110-2) configured to provide second motion data of the second camera (120-2); and a data processing circuitry (130; 230) configured to determine a relative pose of the first camera (120-1) and the second camera (120-2) towards each other from a correlation between the first motion data and the second motion data, determine a position of a target within the environment from a correlation between the first sequence of images and the first motion data; register the position of the target in a digital map of the environment; and detect the target within the second sequence of images using the digital map, the motion data, and the relative pose of the first and the second camera (120-1; 120-2) towards each other. determine a relative pose of the first camera (120-1) and the second camera (120-2) towards each other from a correlation between the first motion data and the second motion data, determine a position of a target within the environment from a correlation between the first sequence of images and the first motion data; register the position of the target in a digital map of the environment; and detect the target within the second sequence of images using the digital map, the motion data, and the relative pose of the first and the second camera (120-1; 120-2) towards each other.
An acoustic energy reflector comprising a microcellular rubber inner liner within a fiber reinforced composite casing to form a core-shell assembly, wherein the said microcellular rubber is selected from the group of natural and synthetic rubbers having a glass transition temperature below 0°C and the resin for the fiber reinforced composite used to form the outer casing is selected from a group having a glass transition temperature at least 50°C, characterized in that the composite casing comprises a box and a lid, each formed from the fiber reinforced composite, and the microcellular rubber inner liner is packed into the box and sealed hermetically with the lid using the same fiber reinforced composite, such that the acoustic energy reflector can sustain a pressure of 25 to 35 kg/cm 2 .
An inductive coil assembly (500, 800a,b) for wireless charging, comprising: an insulating layer comprising a first surface and a second surface opposite the first surface,; a first conductive layer affixed to the first surface of the insulating layer and patterned to form a coil configured to transmit or receive power; a second conductive layer affixed to the second surface of the insulating layer and patterned to form a conductive trace element , wherein the coil and the conductive trace element are electrically connected, characterised in that the insulating layer, the patterned first conductive layer, and the patterned second conductive layer have a concave bowl-like geometry. an insulating layer comprising a first surface and a second surface opposite the first surface,; a first conductive layer affixed to the first surface of the insulating layer and patterned to form a coil configured to transmit or receive power; a second conductive layer affixed to the second surface of the insulating layer and patterned to form a conductive trace element , wherein the coil and the conductive trace element are electrically connected, characterised in that the insulating layer, the patterned first conductive layer, and the patterned second conductive layer have a concave bowl-like geometry.
A measurement instrument for testing a device under test , wherein the device under test has at least two test points , wherein the measurement instrument comprises a first measurement channel , a second measurement channel , and a machine-learning module , wherein the first measurement channel is configured to process a first input signal associated with one of the at least two test points , thereby generating a first measurement signal, wherein the second measurement channel is configured to process a second input signal associated with another one of the at least two test points , thereby generating a second measurement signal, wherein the machine-learning module is configured to determine at least one correlation quantity based on the first measurement signal and based on the second measurement signal, and wherein the at least one correlation quantity is indicative of a correlation between the first measurement signal and the second measurement signal. wherein the measurement instrument comprises a first measurement channel , a second measurement channel , and a machine-learning module , wherein the first measurement channel is configured to process a first input signal associated with one of the at least two test points , thereby generating a first measurement signal, wherein the second measurement channel is configured to process a second input signal associated with another one of the at least two test points , thereby generating a second measurement signal, wherein the machine-learning module is configured to determine at least one correlation quantity based on the first measurement signal and based on the second measurement signal, and wherein the at least one correlation quantity is indicative of a correlation between the first measurement signal and the second measurement signal.
A CTLA4-binding protein, which can specifically bind to CTLA4 and comprises at least one immunoglobulin single variable domain, which comprises the CDR1 set forth in SEQ ID NO:25, CDR2 set forth in SEQ ID NO:26, CDR3 set forth in SEQ ID NO:27; preferably wherein said immunoglobulin single variable domain is a VHH, more preferably a humanized VHH. preferably wherein said immunoglobulin single variable domain is a VHH, more preferably a humanized VHH.
A process for obtaining elemental iron from an acidic solution of a pickling process wherein an iron-containing material is surface treated, said process comprises the steps of: - solubilizing of the iron-containing material with an acidic solution comprising hydrochloric acid, - applying thermal decomposition to iron chloride compounds formed in said solution following the solubilizing, - seeding by adding iron oxide to the medium during thermal decomposition and obtaining Fe x O y compounds in layered form, - obtaining iron oxide particles, contacting the so formed layered Fe x O y compounds with a reductant material in a fluidized bed, and reduction of iron compounds, and - obtaining elemental iron powder as a result of the reduction. - solubilizing of the iron-containing material with an acidic solution comprising hydrochloric acid, - applying thermal decomposition to iron chloride compounds formed in said solution following the solubilizing, - seeding by adding iron oxide to the medium during thermal decomposition and obtaining Fe x O y compounds in layered form, - obtaining iron oxide particles, contacting the so formed layered Fe x O y compounds with a reductant material in a fluidized bed, and reduction of iron compounds, and - obtaining elemental iron powder as a result of the reduction.
A receiver circuit for use in an inductive power transfer system, the receiver circuit comprising a receiver coil (RX) and comprising a Class E rectifier comprising a first receiver capacitance (C L ) and a secondary tank circuit in parallel with the first receiver capacitance (C L ), wherein the receiver circuit is arranged to receive a load in parallel with the first receiver capacitance, and the secondary tank circuit comprises the receiver coil (RX) and a second receiver capacitance arranged in parallel with the receiver coil (RX), and a first diode (D r ) is provided between the secondary tank circuit and the first receiver capacitance (C L ).
A method for testing the uniqueness of a Physically Unclonable Function (PUF) batch comprising a set of PUF instances, the method being implemented in a device , wherein the method comprises testing the uniqueness of the PUF batch by testing a PUF instance belonging to said PUF batch, said PUF instance being configured to receive at least one challenge, each challenge comprising a set of bits, and to produce a set of responses, each response comprising at least one bit and corresponding to one challenge, said PUF instance comprising a circuitry including a set of PUF elements , corresponding to repeated patterns, each pattern including a set of physical components, each PUF element being controlled by at least one input bit corresponding to at least one bit of said challenge, wherein the step of testing the PUF instance comprises: - applying at least one bit of the challenge to the PUF instance; - determining identifiers for at least some of the PUF elements, the identifier of each PUF element being determined from the response output by said each PUF element in response to said at least one bit of the challenge, the response output by said each PUF element being read using auxiliary components arranged to read said response, said step of determining identifiers for at least some of the PUF elements comprises reading the output of said at least some PUF elements, according to a reading protocol; - applying a statistical randomness test to a group of identifiers comprising at least some of the identifiers determined for said PUF elements, which provides a test indicator, wherein the test indicator is assigned to a first value if it is detected in said step of applying a statistical randomness test that at least one PUF identifier is redundant within said group of PUF element identifiers, the method further comprising a step of triggering an action in response to the test indicator being assigned said first value. - applying at least one bit of the challenge to the PUF instance; - determining identifiers for at least some of the PUF elements, the identifier of each PUF element being determined from the response output by said each PUF element in response to said at least one bit of the challenge, the response output by said each PUF element being read using auxiliary components arranged to read said response, said step of determining identifiers for at least some of the PUF elements comprises reading the output of said at least some PUF elements, according to a reading protocol; - applying a statistical randomness test to a group of identifiers comprising at least some of the identifiers determined for said PUF elements, which provides a test indicator,
A vehicle headrest comprising: a head support ; a first loudspeaker; a second loudspeaker; a first loudspeaker support configured to position and direct the first loudspeaker; and a second loudspeaker support configured to position and direct the second loudspeaker, wherein the first loudspeaker support and second loudspeaker support are coupled to the head support , the first loudspeaker support and the second loudspeaker support are lateral headrest support elements configured to extend and retract relative to the head support ; the first loudspeaker support and the second loudspeaker support are support arms configured to extend relative to the head support to position the first and second loudspeakers in a second arrangement; the first loudspeaker support and the second loudspeaker support mechanically adjust the position and direction of first and second loudspeakers; and wherein the first loudspeaker support and second loudspeaker support are configured to, by means of a headrest control signal, automatically position the first and second loudspeakers each in a first arrangement to fully retain the loudspeakers and loudspeaker supports each in a compartment of the headrest and in the second arrangement to move the loudspeakers and loudspeaker supports each out of compartments of the headrest. a head support ; a first loudspeaker; a second loudspeaker; a first loudspeaker support configured to position and direct the first loudspeaker; and a second loudspeaker support configured to position and direct the second loudspeaker, wherein the first loudspeaker support and second loudspeaker support are coupled to the head support , the first loudspeaker support and the second loudspeaker support are lateral headrest support elements configured to extend and retract relative to the head support ; the first loudspeaker support and the second loudspeaker support are support arms configured to extend relative to the head support to position the first and second loudspeakers in a second arrangement; the first loudspeaker support and the second loudspeaker support mechanically adjust the position and direction of first and second loudspeakers; and wherein the first loudspeaker support and second loudspeaker support are configured to, by means of a headrest control signal, automatically position the first and second loudspeakers each in a first arrangement to fully retain the loudspeakers and loudspeaker supports each in a compartment of the headrest and in the second arrangement to move the loudspeakers and loudspeaker supports each out of compartments of the headrest.
A nose structure of an aircraft , the nose structure comprising: an airframe ; a wheel well assembly , coupled to the airframe and forming a portion of a nose landing gear bay , the wheel well assembly comprising a pressure deck that extends from a right side of the airframe to a left side of the airframe and that forms a portion of a pressure boundary delimiting a pressurized space and a non-pressurized space ; a floor-panel support , supported by the pressure deck in the pressurized space , wherein the pressure deck and the floor-panel support form a portion of a flight deck floor of a flight deck of the aircraft ; and a plurality of transport elements , located between the floor-panel support and the pressure deck , wherein the plurality of transport elements is associated with at least one high-level system of the aircraft ; the at least one high-level system includes at least one of: an electrical system , a hydraulic system , an environmental system , a communication system , a propulsion system , a flight control system , and/or a radar system of the aircraft ; wherein the plurality of transport elements is coupled to the floor-panel support to form a subfloor assembly ; and the subfloor assembly is coupled to the pressure deck within the airframe . an airframe ; a wheel well assembly , coupled to the airframe and forming a portion of a nose landing gear bay , the wheel well assembly comprising a pressure deck that extends from a right side of the airframe to a left side of the airframe and that forms a portion of a pressure boundary delimiting a pressurized space and a non-pressurized space ; a floor-panel support , supported by the pressure deck in the pressurized space , wherein the pressure deck and the floor-panel support form a portion of a flight deck floor of a flight deck of the aircraft ; and a plurality of transport elements , located between the floor-panel support and the pressure deck , wherein the plurality of transport elements is associated with at least one high-level system of the aircraft ; the at least one high-level system includes at least one of: an electrical system , a hydraulic system , an environmental system , a communication system , a propulsion system , a flight control system , and/or a radar system of the aircraft ; wherein the plurality of transport elements is coupled to the floor-panel support to form a subfloor assembly ; and the subfloor assembly is coupled to the pressure deck within the airframe .
Connector for a printed circuit board , comprising: a first member comprising engagement means with the printed circuit board configured to transfer a torque to the printed circuit board, an abutting surface and a connecting means , and a second member made of an electrically conductive material, comprising at least one connector pin for electrical connection to the printed circuit board and a bracket extending from the connector pin to at least partially overlap the abutting surface, characterised in that the first member comprises a flange arranged at an end thereof, wherein the flange is interposed between the abutting surface and the engagement means . a first member comprising engagement means with the printed circuit board configured to transfer a torque to the printed circuit board, an abutting surface and a connecting means , and a second member made of an electrically conductive material, comprising at least one connector pin for electrical connection to the printed circuit board and a bracket extending from the connector pin to at least partially overlap the abutting surface, characterised in that the first member comprises a flange arranged at an end thereof, wherein the flange is interposed between the abutting surface and the engagement means .