mhurhangee/ep-ind-claims huggingface dataset:
A method for reducing a quantization error rate, the method comprising: obtaining a first analog signal (512a, 612) representing a first kinematic property of a first position of a vibrating object with a sensor (510a, 610) at the first position of the vibrating object; obtaining a second analog signal (512b, 613) representing a second kinematic property of the first position; digitizing the first analog signal into a first digital signal (514a, 614a); digitizing the second analog signal into a second digital signal (514b, 614b); and combining the first digital signal and the second digital signal into a combined signal (516, 616) such that a quantization error rate of the combined signal is less than a quantization error rate of one of the first digital signal and the second digital signal. obtaining a first analog signal (512a, 612) representing a first kinematic property of a first position of a vibrating object with a sensor (510a, 610) at the first position of the vibrating object; obtaining a second analog signal (512b, 613) representing a second kinematic property of the first position; digitizing the first analog signal into a first digital signal (514a, 614a); digitizing the second analog signal into a second digital signal (514b, 614b); and combining the first digital signal and the second digital signal into a combined signal (516, 616) such that a quantization error rate of the combined signal is less than a quantization error rate of one of the first digital signal and the second digital signal.
An energy storage or collection device comprising: a) at least two electrodes; b) at least one of the electrodes containing carbon or mineral nanotubes, said carbon or mineral nanotubes having a purity greater than 96 percent by weight, which nanotubes have been exfoliated from their as-synthesized state and have attached electroactive or photoactive nanoscale particles or layers; c) at least two current collectors, each in contact with an electrode, or the electrode also functions as the current collector; and d) optionally an insulator. a) at least two electrodes; b) at least one of the electrodes containing carbon or mineral nanotubes, said carbon or mineral nanotubes having a purity greater than 96 percent by weight, which nanotubes have been exfoliated from their as-synthesized state and have attached electroactive or photoactive nanoscale particles or layers; c) at least two current collectors, each in contact with an electrode, or the electrode also functions as the current collector; and d) optionally an insulator.
A sampling or gripping apparatus, comprising a support having a lateral wall and a rear face and a tool mounted on the support, the tool being deformable and comprising a sleeve having a lateral wall, and an end face and an edge between which the lateral wall of the tool extends, the edge being fastened to the support and the end face extending away from the support in a deployed state of the sleeve where the lateral wall of the support, the lateral wall of the sleeve, the rear face and the end face enclose an internal volume extending from the end face to the rear face, and the apparatus further comprising a sleeve retraction actuator returning the end face into the internal volume and folding the lateral wall of the sleeve to a folded state, characterised in that the tool further comprises at least one ring of wafers which are attached to the sleeve and radiating around the sleeve in the deployed state, the at least one ring of wafers is surrounded by the lateral wall of the sleeve in the folded state, and the apparatus further comprises retractable means for guiding the retraction of the sleeve by the retraction actuator, extending in the internal volume by being connected, at the opposite ends thereof, to the rear face of the support and to the end face of the sleeve.
Clamping unit for a blow-moulding machine, wherein, in the blow-moulding machine, use is able to be made of at least one blow-moulding tool which has two-part tool halves (2, 3) and which, in the closed state of the two tool halves (2, 3), delimits a mould cavity with undercuts, and wherein the clamping unit comprises a first and a second mould carrier (4, 5) on which the blow-moulding tool is arrangeable and to which the latter is releasably fastenable, and wherein a respective mould bottom part (2.2, 3.3) of the tool half, that is to say the lower base half, is lowerable in relation to a mould top part (2.1, 3.1) of the tool half, and wherein the two tool halves (2, 3) are movable back and forth between an open state and a closed state in a first movement direction, and wherein the clamping unit comprises at least one first actuator and at least one second actuator, and wherein the mould bottom part (2.2, 3.2) of each tool half is movable back and forth between an open state and a closed state in a second movement direction, which is different from the first movement direction, in relation to the mould top part (2.1, 3.1) by means of the at least one first actuator or by means of the at least one second actuator, characterized in that - the actuators (13, 14) are arranged on the clamping unit and, in the case of a changeover of the blow-moulding tool, remain on the clamping unit, and wherein - one of the two mould bottom parts (2.2, 3.2) is releasably connectable to the drive output of the at least one first actuator and the other of the two mould bottom parts (2.2, 3.2) is releasably connectable to a drive output of the at least one second actuator, so that the changeover of the blow-moulding tool is simplified, and wherein - the at least one first actuator and the at least one second actuator are arranged on the clamping unit so as to be movable in relation to one another in the first movement direction. - the actuators (13, 14) are arranged on the clamping unit and, in the case of a changeover of the blow-moulding tool, remain on the clamping unit, and wherein - one of the two mould bottom parts (2.2, 3.2) is releasably connectable to the drive output of the at least one first actuator and the other of the two mould bottom parts (2.2, 3.2) is releasably connectable to a drive output of the at least one second actuator, so that the changeover of the blow-moulding tool is simplified, and wherein - the at least one first actuator and the at least one second actuator are arranged on the clamping unit so as to be movable in relation to one another in the first movement direction.
Wiper blade adapter device with a wiper arm adapter and a wiper blade adapter, and with a rotary bearing unit which is provided to mount the wiper arm adapter and the wiper blade adapter so as to be rotatable relative to each other about a longitudinal axis of the wiper blade adapter during an assembly operation, and with a latching unit which is provided to form a latching connection between the wiper arm adapter and the wiper blade adapter in an assembled state, wherein the wiper arm adapter is designed to be exchangeable from the wiper blade adapter and has an intersection with a wiper arm such that the wiper arm adapter is exchangeable depending on the embodiment of the wiper arm, characterized in that the latching unit has at least one latching recess which is arranged on the wiper blade adapter, and the at least one latching recess is at least partially arranged in a side wall and at least partially arranged within a basic body of the wiper blade adapter.
Water transport line configured for capillary watering in a plant watering device and comprising a flexible strand of fibrous material as a means of transporting water also against gravity, wherein the strand of fibrous material is surrounded at least over part of its length by a watertight sheath, characterized in that the strand of fibrous material is configured as a flat strip and the sheath delimits an interior space, which is flat in cross-section, and in that at one end of the sheath, the flat strip of fibrous material merges into a flat expanded form, having a transverse dimension, which is a multiple of the width of the strip.
A method for indicating, by a user equipment, UE, change of a coverage enhancement, CE, mode in a wireless communication system, the method comprising: estimating, by the UE, the CE mode of the UE as a first CE mode; determining, by the UE, that the CE mode of the UE changes from the first CE mode to a second CE mode; detaching, by the UE, with a network; and re-attaching, by the UE, with the network based on the second CE mode; and transmitting, by the UE, information on the second CE mode to the network during the re-attach procedure. estimating, by the UE, the CE mode of the UE as a first CE mode; determining, by the UE, that the CE mode of the UE changes from the first CE mode to a second CE mode; detaching, by the UE, with a network; and re-attaching, by the UE, with the network based on the second CE mode; and transmitting, by the UE, information on the second CE mode to the network during the re-attach procedure.
A packet backpressure detection method by a device having a Peripheral Component Interconnect Express, PCIe, port, and the method comprises: storing a plurality of packets that are to be transmitted via the PCIe port in a packet queue in a first buffer and storing a packet that is to be transmitted next in a second buffer; recording a storage duration of each packet stored in the second buffer; determining that packet backpressure occurs at the PCIe port and removing the packet from the second buffer after the packet is transmitted via the PCIe port, when recorded storage duration of any packet in the second buffer reaches a first value; and generating an indication of packet backpressure at the PCIe port. storing a plurality of packets that are to be transmitted via the PCIe port in a packet queue in a first buffer and storing a packet that is to be transmitted next in a second buffer; recording a storage duration of each packet stored in the second buffer; determining that packet backpressure occurs at the PCIe port and removing the packet from the second buffer after the packet is transmitted via the PCIe port, when recorded storage duration of any packet in the second buffer reaches a first value; and generating an indication of packet backpressure at the PCIe port.
A vacuum adiabatic body comprising: a first plate defining at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate defining at least one portion of a second side of the wall adjacent to a second space having a second temperature different than the first temperature; a seal that seals the first plate and the second plate to provide a third space that has a third temperature between the first and second temperatures and is in a vacuum state; a support provided in the third space to maintain a gap in the third space; a heat resistance unit that reduces heat transfer between the first plate and the second plate; and an exhaust port through which a gas in the third space is ejected, characterized in that the third space includes a first vacuum space having a first height and a second vacuum space having a second height lower than the first height of the first vacuum space, and an addition mounting portion provided at an external side of the wall adjacent to the second vacuum space. a first plate defining at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate defining at least one portion of a second side of the wall adjacent to a second space having a second temperature different than the first temperature; a seal that seals the first plate and the second plate to provide a third space that has a third temperature between the first and second temperatures and is in a vacuum state; a support provided in the third space to maintain a gap in the third space; a heat resistance unit that reduces heat transfer between the first plate and the second plate; and an exhaust port through which a gas in the third space is ejected, characterized in that the third space includes a first vacuum space having a first height and a second vacuum space having a second height lower than the first height of the first vacuum space, and an addition mounting portion provided at an external side of the wall adjacent to the second vacuum space.
A pharmaceutical composition comprising 3,5-diiodo-O-[3-iodo-4-(sulfooxy)phenyl]-L-tyrosine (T 3 S) as the active principle, in a micronized form and in a quantity of from 1 to 1000 μg, further comprising: a) a diluent selected from cellulose and derivatives thereof, together with a second diluent, up to 35% of the total diluent (w/w); b) a disintegrant consisting of croscarmellose sodium salt, present in a quantity ranging from 0,5 to 10% (w/w); c) a glidant consisting of glycerol dibehenate, present in a quantity ranging from 1 to 10% (w/w); d) a lubricant consisting of magnesium stearate and colloidal hydrated silica, present in a total quantity range comprised from 0.1 to 7% (w/w). a) a diluent selected from cellulose and derivatives thereof, together with a second diluent, up to 35% of the total diluent (w/w); b) a disintegrant consisting of croscarmellose sodium salt, present in a quantity ranging from 0,5 to 10% (w/w); c) a glidant consisting of glycerol dibehenate, present in a quantity ranging from 1 to 10% (w/w); d) a lubricant consisting of magnesium stearate and colloidal hydrated silica, present in a total quantity range comprised from 0.1 to 7% (w/w).
A liposomal composition comprising: (a) liposomes comprising tetraether lipids (TELs), and (b) the lipopeptide Myr-HBVpreS/2-48 (Myrcludex B) as part of said liposomes. (a) liposomes comprising tetraether lipids (TELs), and (b) the lipopeptide Myr-HBVpreS/2-48 (Myrcludex B) as part of said liposomes.
A buckle device 10 comprising: an insertion body 12 that is installed in a vehicle, a tongue 16 provided at a belt installed in the vehicle being inserted into an inside portion 14 of the insertion body 12 whereby the belt 20 is applied on a vehicle occupant; a moving member 48 that is provided inside the insertion body 12, the moving member being moved according to insertion of the tongue inside the insertion body 12, characterised by a detector 64 that is provided inside the insertion body 12 and that includes a communication member communicating with the moving member 48, the communication member 72 being moved according to movement of the moving member 48, and the detector detecting insertion of the tongue 16 inside the insertion body 12 by movement of the communication member 48, and a partitioning section 38 that is provided inside the insertion body 12 to partition between the moving member side and the detector 64 side of the insertion body 12 and that includes a through hole 40 for communication between the moving member 48 and the communication member 72, the communication member 72 closing a portion of the through hole 46 which portion is opened by the movement of the moving member. an insertion body 12 that is installed in a vehicle, a tongue 16 provided at a belt installed in the vehicle being inserted into an inside portion 14 of the insertion body 12 whereby the belt 20 is applied on a vehicle occupant; a moving member 48 that is provided inside the insertion body 12, the moving member being moved according to insertion of the tongue inside the insertion body 12, characterised by a detector 64 that is provided inside the insertion body 12 and that includes a communication member communicating with the moving member 48, the communication member 72 being moved according to movement of the moving member 48, and the detector detecting insertion of the tongue 16 inside the insertion body 12 by movement of the communication member 48, and a partitioning section 38 that is provided inside the insertion body 12 to partition between the moving member side and the detector 64 side of the insertion body 12 and that includes a through hole 40 for communication between the moving member 48 and the communication member 72, the communication member 72 closing a portion of the through hole 46 which portion is opened by the movement of the moving member.
Magnet armature for an injection valve, comprising: - at least one magnetic region and at least one non-magnetic region, - wherein the magnet armature is in the form of a unipartite component, - wherein the magnetic and non-magnetic regions (3, 4) are connected to one another cohesively by means of a two-component powder injection moulding process, characterized in that the magnetic region is completely enclosed by the non-magnetic region. - at least one magnetic region and at least one non-magnetic region, - wherein the magnet armature is in the form of a unipartite component, - wherein the magnetic and non-magnetic regions (3, 4) are connected to one another cohesively by means of a two-component powder injection moulding process,
A polymerized peptide that has, as a repeating unit, a triple-chain peptide having a triple-helical structure, and is polymerized by oxidative cross-linking, wherein peptide chains composing the triple-chain peptide are identical to or different from one another, and each peptide chain has: one or more triple helix forming peptidyl groups each having a repeating structure in which -(Xaa-Yaa-Gly)- as a basic unit is repeated at least 10 times, and one or more cross-link forming peptidyl groups each comprising at least two cysteine (Cys) residues within 10 residues from each of the amino-terminus and the carboxy-terminus, and wherein each of Xaa and Yaa is independently selected from a proline (Pro or P) residue, a hydroxyproline (Hyp or O) residue, an arginine (Arg or R) residue, a lysine (Lys or K) residue, a valine (Val or V) residue, a leucine (Leu or L) residue, an isoleucine (Ile or I) residue, a serine (Ser or S) residue, a threonine (Thr or T) residue, an alanine (Ala or A) residue, a glycine (Gly or G) residue, a phenylalanine (Phe or F) residue, a methionine (Met or M) residue, a glutamate (Glu or E) residue, an aspartate (Asp or D) residue, an asparagine (Asn or N) residue, a glutamine (Gln or Q) residue, a histidine (His or H) residue, a tryptophan (Trp or W) residue or a tyrosine (Tyr or Y) residue, the proline residue may be modified by an amino group or fluorine atom, and each of the Xaa position and Yaa position may employ an N-isobutyl glycine residue. one or more triple helix forming peptidyl groups each having a repeating structure in which -(Xaa-Yaa-Gly)- as a basic unit is repeated at least 10 times, and one or more cross-link forming peptidyl groups each comprising at least two cysteine (Cys) residues within 10 residues from each of the amino-terminus and the carboxy-terminus, and wherein
Method for producing a material layer for a rotor of a dynamoelectric rotary machine with a rotational direction about a rotational axis arranged in a layer centre of the material layer, wherein the material layer has a material recess arranged substantially at the layer centre, wherein the material layer has a first region, wherein the first region has a first material with a first degree of strength, wherein the material layer has a substantially annular second region arranged concentrically to the layer centre, wherein the second region has a second material with a second degree of strength higher than the first degree of strength, wherein the first material and the second material are connected with a material bond, wherein an outer circumference of the second region fully adjoins an inner circumference of the first region, with the following steps: - applying a first suspension having at least one binding agent and solid particles through a first screen onto a base in order to obtain a first green body, wherein the first region is mapped from the first screen, - applying a second suspension having at least one binding agent and solid particles through a second screen onto a base in order to obtain a second green body, wherein the second region is mapped by the second screen, - joining the first green body and the second green body, - creating a permanent material bond of the two green bodies and the solid particles by heating and/or by means of compression, in particular by means of sintering. - applying a first suspension having at least one binding agent and solid particles through a first screen onto a base in order to obtain a first green body, wherein the first region is mapped from the first screen, - applying a second suspension having at least one binding agent and solid particles through a second screen onto a base in order to obtain a second green body, wherein the second region is mapped by the second screen, - joining the first green body and the second green body, - creating a permanent material bond of the two green bodies and the solid particles by heating and/or by means of compression, in particular by means of sintering.
A USB extension device (502, 504) comprising: a USB port; an extension medium transceiver (508, 516) configured to: receive outgoing differential signals from the USB port; transmit outgoing signals representing the outgoing differential signals over an extension medium; and receive incoming signals from the extension medium representing incoming differential signals; a multiplexer (512, 520) selectively configurable to: transmit the incoming differential signals from the extension medium transceiver to the USB port while configured in a first state; and transmit a signal from a null data source (511, 519) to the USB port while configured in a second state, the signal from the null data source being a substantially constant frequency differential signal with a frequency of 30kHz; and logic circuitry (510, 518) configured to control whether the multiplexer (512, 520) is in the first state or the second state, and, to cause the multiplexer to be in the second state in response to detecting an idle differential signal from the USB port. a USB port; an extension medium transceiver (508, 516) configured to: receive outgoing differential signals from the USB port; transmit outgoing signals representing the outgoing differential signals over an extension medium; and receive incoming signals from the extension medium representing incoming differential signals; receive outgoing differential signals from the USB port; transmit outgoing signals representing the outgoing differential signals over an extension medium; and receive incoming signals from the extension medium representing incoming differential signals; a multiplexer (512, 520) selectively configurable to: transmit the incoming differential signals from the extension medium transceiver to the USB port while configured in a first state; and transmit a signal from a null data source (511, 519) to the USB port while configured in a second state, the signal from the null data source being a substantially constant frequency differential signal with a frequency of 30kHz; and transmit the incoming differential signals from the extension medium transceiver to the USB port while configured in a first state; and transmit a signal from a null data source (511, 519) to the USB port while configured in a second state, the signal from the null data source being a substantially constant frequency differential signal with a frequency of 30kHz; and logic circuitry (510, 518) configured to control whether the multiplexer (512, 520) is in the first state or the second state, and, to cause the multiplexer to be in the second state in response to detecting an idle differential signal from the USB port.