mhurhangee/patent-ind-claim-en huggingface dataset:
A furniture system with an electrically adjustable piece of furniture and an energy transmission device , wherein - the piece of furniture comprises at least one actuator for adjusting the piece of furniture , an electrical energy store for supplying the actuator during an adjustment process, and a charging circuit for charging the energy store ; - the energy transmission device is adapted to receive energy from an AC mains supply and to deliver it wirelessly; - the charging circuit comprises an energy receiving device and a charging controller and is adapted to at least partially receive, using the energy receiving device , the energy output from the energy transmission device without physical contact with the energy transmission device and to use it to charge the energy store ; - the energy is transmitted from the energy transmission device to the energy receiving device based on a radio wave based method, in particular a high frequency method; - the charging controller is adapted to control charging of the energy store with the energy received by the energy receiving device ; - the energy transmission device and the energy receiving device are designed to transmit sufficient energy from the energy transmission device to the energy receiving device for charging the energy store up to a distance of 50 cm to 150 cm, in particular up to a distance of 60 cm to 90 cm; and - a maximum power transmittable from said energy transmitting device to said energy receiving device is fixed to a predetermined level to limit an electromagnetic radiation density and to keep losses in the energy transmitting device low. - the piece of furniture comprises at least one actuator for adjusting the piece of furniture , an electrical energy store for supplying the actuator during an adjustment process, and a charging circuit for charging the energy store ; - the energy transmission device is adapted to receive energy from an AC mains supply and to deliver it wirelessly; - the charging circuit comprises an energy receiving device and a charging controller and is adapted to at least partially receive, using the energy receiving device , the energy output from the energy transmission device without physical contact with the energy transmission device and to use it to charge the energy store ; - the energy is transmitted from the energy transmission device to the energy receiving device based on a radio wave based method, in particular a high frequency method; - the charging controller is adapted to control charging of the energy store with the energy received by the energy receiving device ; - the energy transmission device and the energy receiving device are designed to transmit sufficient energy from the energy transmission device to the energy receiving device for charging the energy store up to a distance of 50 cm to 150 cm, in particular up to a distance of 60 cm to 90 cm; and - a maximum power transmittable from said energy transmitting device to said energy receiving device is fixed to a predetermined level to limit an electromagnetic radiation density and to keep losses in the energy transmitting device low.
A method implemented in a wireless device , the method comprising: transmitting a message 1 of a random access procedure; and transmitting a message 3 of the random access procedure, the method being characterized in further comprising: receiving an indication whether the wireless device is to provide a reduced capability, RedCap, indication via the message 1; and determining, based on the received indication, whether to provide a RedCap indication via the message 1, wherein the message 1 is transmitted based on the determining, and wherein a RedCap indication is provided via the message 3 at least if a RedCap indication is not provided via the message 1. transmitting a message 1 of a random access procedure; and transmitting a message 3 of the random access procedure, receiving an indication whether the wireless device is to provide a reduced capability, RedCap, indication via the message 1; and determining, based on the received indication, whether to provide a RedCap indication via the message 1, wherein the message 1 is transmitted based on the determining, and wherein a RedCap indication is provided via the message 3 at least if a RedCap indication is not provided via the message 1.
A structure comprising: a semiconductor light emitting device capable of emitting first light having a first peak wavelength; and a semiconductor wavelength converting element capable of absorbing the first light and emitting second light having a second peak wavelength; wherein: the semiconductor wavelength converting element is attached to a support and disposed in a path of light emitted by the semiconductor light emitting device , wherein the support is capable of emitting third light having a third peak wavelength; and the semiconductor wavelength converting element includes regions of semiconductor wavelength converting material, characterized in that , the support is a ceramic phosphor, the wavelength converting element is patterned to include at least two first regions and at least one second region without semiconductor wavelength material disposed between the at least two first regions , a surface of the semiconductor wavelength converting element is passivated, and the total thickness of the semiconductor wavelength converting elements is 5 μm or less. a semiconductor light emitting device capable of emitting first light having a first peak wavelength; and a semiconductor wavelength converting element capable of absorbing the first light and emitting second light having a second peak wavelength; wherein: the semiconductor wavelength converting element is attached to a support and disposed in a path of light emitted by the semiconductor light emitting device , wherein the support is capable of emitting third light having a third peak wavelength; and the semiconductor wavelength converting element includes regions of semiconductor wavelength converting material, the semiconductor wavelength converting element is attached to a support and disposed in a path of light emitted by the semiconductor light emitting device , wherein the support is capable of emitting third light having a third peak wavelength; and the semiconductor wavelength converting element includes regions of semiconductor wavelength converting material, characterized in that , the support is a ceramic phosphor, the wavelength converting element is patterned to include at least two first regions and at least one second region without semiconductor wavelength material disposed between the at least two first regions , a surface of the semiconductor wavelength converting element is passivated, and the total thickness of the semiconductor wavelength converting elements is 5 μm or less.
An inductive power transfer system for coupling a power source to a load across an air gap , the system comprising a primary unit associated with a host platform and a secondary unit arranged to receive power transmitted inductively from the primary unit , wherein the primary unit includes: a phase detection circuit configured to detect phase changes in a signal in the primary unit indicative of changes in an operating condition within the secondary unit ; a drive circuit configured to adjust the power level transmitted to the secondary unit depending on the detected phase, wherein the drive circuit comprises a primary inductor coil and a series resonant capacitor forming a resonant circuitry; and a primary switching frequency circuit comprising an internal clock and configured to alter a switching frequency of the internal clock; characterised in that the phase changes detected by the phase detection circuit are phase changes in a resonant signal of the resonant circuitry relative to a clock signal phase; and wherein the phase detection circuit is configured to measure the resonant signal phase by detecting the phase of a voltage waveform on the junction of the series resonant capacitor and primary inductor coil . a phase detection circuit configured to detect phase changes in a signal in the primary unit indicative of changes in an operating condition within the secondary unit ; a drive circuit configured to adjust the power level transmitted to the secondary unit depending on the detected phase, wherein the drive circuit comprises a primary inductor coil and a series resonant capacitor forming a resonant circuitry; and a primary switching frequency circuit comprising an internal clock and configured to alter a switching frequency of the internal clock;
Heat exchanger , such as a flooded evaporator, comprising a shell extending along a longitudinal axis (X), an inlet pipe and an outlet pipe , through which respectively enters (F1) and exits (F2) a refrigerant flow, and a bundle of pipes crossing the shell along the longitudinal axis (X), and comprising a refrigerant flow diffuser provided inside the shell downstream the inlet pipe , the refrigerant flow diffuser extending along the longitudinal axis (X) and comprising openings through which the refrigerant flows, characterized in that the refrigerant flow diffuser comprises a moving element and a stationary element , the moving element being movable with respect to the stationary element under action of a pressure force (FP) exerted by the refrigerant flow so that the refrigerant flow going through the openings is adjusted and a differential refrigerant pressure between refrigerant pressure downstream (P2) and upstream (P1) the refrigerant flow diffuser is kept constant.
A process comprising: a) producing a melt of sodium acetate trihydrate; b) optionally dosing of further optional ingredients; c) dosing at least one perfume oil and/or fragrance capsules; d) feeding the melt to a drop former with a rotating, perforated outer drum; e) discharging drops of the melt onto a cooling belt by means of the drop former, wherein the mixture discharged from the drop former has a weight ratio of water to sodium acetate of 0.63 or above. a) producing a melt of sodium acetate trihydrate; b) optionally dosing of further optional ingredients; c) dosing at least one perfume oil and/or fragrance capsules; d) feeding the melt to a drop former with a rotating, perforated outer drum; e) discharging drops of the melt onto a cooling belt by means of the drop former,
Machine with a steering axis and a manual controller to control the machine , comprising a) a mounting platform , b) a tracking device with frame and/or housing , which is movably arranged on the mounting platform , c) a control lever , which is mounted to pivot around an axis in a joint , whereby the joint is provided in the frame and/or housing of the tracking device , d) a position sensor , which detects the deflection of the control lever as the guide angle (ω) and generates a signal corresponding to the deflection (ω), e) an evaluation and processing unit , which processes the signal from the position sensor and controls a steering hydraulic system to steer the machine according to the deflection by the guide angle (ω) whereby the machine is steered about the steering axis by a steering angle (a), f) a return mechanism , which always returns the control lever after a control command to a relative starting position in the frame and/or housing of the tracking device , g) a control device , which guides the tracking device through a feedback angle (β) so that the feedback angle (β) corresponds to the steering angle (α), characterized in that h) it is possible using the control lever to steer the steering hydraulic system in both directions at any time and independent of the steering angle (α) and feedback angle (β), whereby the guide angle (ω) can be detected to specify target values for the steering speed and steering direction. a) a mounting platform , b) a tracking device with frame and/or housing , which is movably arranged on the mounting platform , c) a control lever , which is mounted to pivot around an axis in a joint , whereby the joint is provided in the frame and/or housing of the tracking device , d) a position sensor , which detects the deflection of the control lever as the guide angle (ω) and generates a signal corresponding to the deflection (ω), e) an evaluation and processing unit , which processes the signal from the position sensor and controls a steering hydraulic system to steer the machine according to the deflection by the guide angle (ω) whereby the machine is steered about the steering axis by a steering angle (a), f) a return mechanism , which always returns the control lever after a control command to a relative starting position in the frame and/or housing of the tracking device , g) a control device , which guides the tracking device through a feedback angle (β) so that the feedback angle (β) corresponds to the steering angle (α), characterized in that h) it is possible using the control lever to steer the steering hydraulic system in both directions at any time and independent of the steering angle (α) and feedback angle (β), whereby the guide angle (ω) can be detected to specify target values for the steering speed and steering direction.
A method of targeted electroporation and/or lysis of eukaryotic cellular bodies in a biological sample with at least two subgroups of eukaryotic cellular bodies, wherein each subgroup has a different susceptibility to electroporation and/or lysis in electric fields, comprising the following steps: - transferring the biological sample in a chamber, - exposing the biological sample to an electric field in the chamber, wherein the electric field is generated by at least two electrodes which are coated with a dielectric material with a relative permittivity greater than 3.9, preferably greater than 9, more preferably 60 or more, and - choosing the electric parameters of the electric field such as the field strength, the frequency or the wave form so that the subgroups are differently affected by said electric field for electroporation and/or lysis. - transferring the biological sample in a chamber, - exposing the biological sample to an electric field in the chamber, wherein the electric field is generated by at least two electrodes which are coated with a dielectric material with a relative permittivity greater than 3.9, preferably greater than 9, more preferably 60 or more, and - choosing the electric parameters of the electric field such as the field strength, the frequency or the wave form so that the subgroups are differently affected by said electric field for electroporation and/or lysis.
A hydraulic binder composition for producing a very low-shrinkage concrete, comprising ordinary Portland cement, optionally a supplementary cementitious material, and an expanding agent, characterized in that the expanding agent is calcium oxide, wherein - the calcium oxide has a particle size distribution characterized by a residue of at least 6 wt.-% on a 45 μm mesh sieve, and at least one of the following: - the calcium oxide has a reactivity that is characterized by a conductivity of < 11 mS/cm when dissolved in water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by an average temperature increase of < 0,5°C/min during the first 15 minutes after the addition of the calcium oxide into water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by a temperature increase of < 10°C during the first 5 minutes after the addition of the calcium oxide into water determined as defined in the description. - the calcium oxide has a particle size distribution characterized by a residue of at least 6 wt.-% on a 45 μm mesh sieve, and at least one of the following: - the calcium oxide has a reactivity that is characterized by a conductivity of < 11 mS/cm when dissolved in water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by an average temperature increase of < 0,5°C/min during the first 15 minutes after the addition of the calcium oxide into water determined as defined in the description, - the calcium oxide has a reactivity that is characterized by a temperature increase of < 10°C during the first 5 minutes after the addition of the calcium oxide into water determined as defined in the description.
An organic electronic material comprising a polymer or oligomer which has three or more polymerizable substituents each including an oxetane group and each being introduced into an end of the polymer or oligomer, and has a structure branching in three or more directions, in which when a chain having the highest degree of polymerization among the various chains in one molecule of the polymer or oligomer is designated as the main chain, side chains having one or more polymerized units and having an equal degree of polymerization or a lower degree of polymerization are linked to the main chain, wherein the number average molecular weight of the polymer or oligomer is from 3,000 to 1,000,000, the polymer or oligomer contains at least any one of the structures of the following formulas to as a unit serving as the starting point for forming the branched structure: wherein Ar's each independently represent a divalent linking group, each representing an arylene group or heteroarylene group having 2 to 30 carbon atoms; W represents a trivalent linking group, which is an atomic group obtained by further excluding one hydrogen atom from the arylene group or the heteroarylene group and may be substituted; Y's each independently represent a divalent linking group; and Z represents any one of a carbon atom, a silicon atom and a phosphorus atom; and the polymer or oligomer has a partial structure represented by one of the following formulas: wherein A 1 and A 2 each independently represent a trivalent linking group represented by the formula , , or ; A 3 and A 4 each independently represent a tetravalent linking group represented by the formula , , , , or ; L 1 to L 10 each independently represent a divalent linking group; X m represents a divalent linking group; n represents an integer of 1 or greater; and m represents 1 or an integer from 1 to n.
An anti-NKG2D antibody or an antigen-binding portion thereof comprising: an antibody heavy chain variable domain comprising a complementarity-determining region 1 (CDR1) amino acid sequence of SEQ ID NO:48, a complementarity-determining region 2 (CDR2) amino acid sequence of SEQ ID NO:30, and a complementarity-determining region 3 (CDR3) amino acid sequence of SEQ ID NO:44; and an antibody light chain variable domain comprising a CDR1 amino acid sequence of SEQ ID NO:32, a CDR2 amino acid sequence of SEQ ID NO:33, and a CDR3 amino acid sequence of SEQ ID NO:34.
Foaming device for foaming and/or heating a fluid inside a container , the device further comprising a processing element , a driving unit and a distinct heating unit such that the processing element is mechanically decoupled from both the heating unit and the driving unit , the processing element being movable inside the container in response to a magnetic field generated by the driving unit , characterized in that the processing element is further inductively heatable by an oscillating magnetic field provided by the heating unit .
An elongated signal tape comprising: a core material and a protective material; said protective material comprising; a top sheet of thermoplastic material having a first predetermined length, a top and a bottom surface, an outer edge at each lateral portion of said top sheet , a first predetermined width; and, a bottom sheet of thermoplastic material having a second predetermined length, a top surface and a bottom surface, an outer edge at each lateral portion of said bottom sheet , and a second predetermined width; with said first and said second predetermined lengths being approximately equal and with said first and second predetermined widths being approximately equal; said core material being a generally non-stretchable material and being positioned between said top and bottom thermoplastic sheets, said core material having; a predetermined length, an outer surface, a maximum lateral dimension of approximately 2,54 cm, a tensile strength of at least 445 N; and, said elongated signal tape further comprising adhesive, bonding at least one of the top or bottom sheet of thermoplastic material to a substantial portion of the outer surface of said core material and also bonding the outer edges of said top and bottom thermoplastic sheets together. a core material and a protective material; said protective material comprising; a top sheet of thermoplastic material having a first predetermined length, a top and a bottom surface, an outer edge at each lateral portion of said top sheet , a first predetermined width; and, a bottom sheet of thermoplastic material having a second predetermined length, a top surface and a bottom surface, an outer edge at each lateral portion of said bottom sheet , and a second predetermined width; with said first and said second predetermined lengths being approximately equal and with said first and second predetermined widths being approximately equal; a top sheet of thermoplastic material having a first predetermined length, a top and a bottom surface, an outer edge at each lateral portion of said top sheet , a first predetermined width; and, a bottom sheet of thermoplastic material having a second predetermined length, a top surface and a bottom surface, an outer edge at each lateral portion of said bottom sheet , and a second predetermined width; with said first and said second predetermined lengths being approximately equal and with said first and second predetermined widths being approximately equal; said core material being a generally non-stretchable material and being positioned between said top and bottom thermoplastic sheets, said core material having; a predetermined length, an outer surface, a maximum lateral dimension of approximately 2,54 cm, a tensile strength of at least 445 N; and, a predetermined length, an outer surface, a maximum lateral dimension of approximately 2,54 cm, a tensile strength of at least 445 N; and,