mhurhangee/ep-ind-claims huggingface dataset:
Lateral case for motorcycles comprising a coupling/release device configured to allow the coupling and the release of said case to/from the vehicle frame, said coupling/release device comprising at least one pair of hooks (23, 24) which protrude from the surface of the case intended to face said frame with loops (23a, 24a; facing downwards and configured to engage special coupling seats (100, 200) formed on said vehicle frame, said device further comprising a pair of sliders (25, 26) movable along a substantially horizontal direction and each configured to be able to selectively positioning in correspondence with one of said hooks (23, 24), below it, so as to match special grooves (400, 500) formed on said frame below said coupling seats (100, 200), further characterized in that each of said sliders (25, 26) is connected to a respective sliding rod-shaped element (43, 46) comprising at least one rack portion (44, 47), a first of said sliding rod-shaped elements being in turn kinematically connected to a locking/unlocking lever which can be activated by the user, the actuation of said lever causing the translation of said first rod-shaped element and of the relative slider, the two rack portions (44, 47) resulting facing each other and an idle toothed wheel being interposed between them so that the translation of said first rod-shaped element caused by the actuation of said lever causes an equal translation in the opposite direction of the second of said rod-shaped elements (43, 46) and of the relative slider.
A front loading drum type washing machine, comprising: a main body comprising a cabinet, a drum in the cabinet a rotational axis thereof parallel with a base, and a motor configured to drive or rotate the drum; and an angle adjusting unit configured to adjust an angle of the main body from the ground and/or tilt the main body up to the angle, wherein the angle adjusting unit comprises: the base configured to support the main body and a cylinder device on the base configured to tilt the main body, and the angle adjusting unit is configured to tilt the main body around a rotational shaft between side surfaces of the cabinet positioned at a rear lower end of the cabinet, characterized in that, the base has a guide groove, in which the rotational shaft is adapted to rotate, move and slide along in a front-to-rear direction of the cabinet. a main body comprising a cabinet, a drum in the cabinet a rotational axis thereof parallel with a base, and a motor configured to drive or rotate the drum; and an angle adjusting unit configured to adjust an angle of the main body from the ground and/or tilt the main body up to the angle, the base configured to support the main body and a cylinder device on the base configured to tilt the main body, and the angle adjusting unit is configured to tilt the main body around a rotational shaft between side surfaces of the cabinet positioned at a rear lower end of the cabinet,
A wrist-worn sensor for measuring wrist tendon forces corresponding to specific finger motions comprising: one or more piezoelectric sensors (501, 502, 503, 504), wherein the one or more piezoelectric sensors are configured to emit electric currents generated upon pressure from wrist tendons on the one or more piezoelectric sensors; a support member configured to support the one or more piezoelectric sensors within the support member, wherein the support member comprises one or more mounting slots configured to fit and support the one or more piezoelectric sensors, the one or more slots being arranged to support the one or more piezoelectric sensors at an angle relative to a surface of the support member such that, in use, the tip of the or each piezoelectric sensor is adjacent a wearer's wrist; and a processing module configured for converting electric current generated by the one or more piezoelectric sensors upon pressure from wrist tendons into signals and for processing the signals for identification of one or more specific finger motions. one or more piezoelectric sensors (501, 502, 503, 504), wherein the one or more piezoelectric sensors are configured to emit electric currents generated upon pressure from wrist tendons on the one or more piezoelectric sensors; a support member configured to support the one or more piezoelectric sensors within the support member, wherein the support member comprises one or more mounting slots configured to fit and support the one or more piezoelectric sensors, the one or more slots being arranged to support the one or more piezoelectric sensors at an angle relative to a surface of the support member such that, in use, the tip of the or each piezoelectric sensor is adjacent a wearer's wrist; and a processing module configured for converting electric current generated by the one or more piezoelectric sensors upon pressure from wrist tendons into signals and for processing the signals for identification of one or more specific finger motions.
An ankle prosthesis comprising a talar component which includes a talar upper face defining a first articular surface and which extends between a talar anterior edge and an opposite talar posterior edge according to a first average direction (A-A'), said first articular surface being curved according to said first average direction (A-A'), said first articular surface comprising a first curved portion and a second curved portion, each extending according to said first average direction (A-A'), said first curved portion having a first curvature and said second curved portion having a second curvature, said prosthesis being characterized in that said first curved portion and said second curved portion define respectively an anterior portion and a posterior portion of said first articular surface, said first curvature being greater than said second curvature.
Method for controlling an electrolysis cell for the electrolytic production of ozone, which can be switched between a switched-off and a switched-on state of a supply voltage and through which water can flow, wherein a change of the water flow in the electrolysis cell triggers a signal which is transmitted to the control unit and the control unit switches on or switches off the supply voltage of the electrolysis cell, characterised in that the signal is triggered by a change of a potential difference which is measured between two measuring points within the flowed-through volume of the electrolysis cell, wherein an increase in the water through-flow generates a change in the potential difference, which triggers a signal to switch on the electrolysis cell on the part of the control unit and a decrease in the water through-flow generates a change in the potential difference which triggers a signal to switch off the electrolysis cell on the part of the control unit and furthermore a quiescent voltage of 0.2-2V is present at the electrolysis cell in a switched-off state.
A travel control method by which a travel control device recognizes a lane in which a host vehicle is traveling and controls travel of the host vehicle such that the host vehicle is situated at a predetermined position relative to a boundary line of the lane, the travel control method comprising, if a lane width of the lane in which the host vehicle is traveling increases and it is determined that one of boundary lines situated to left and right of the host vehicle is a dashed line, controlling the travel of the host vehicle based on the dashed boundary line, and characterized by if a lane width of the lane in which the host vehicle is traveling increases and it is impossible to determine that one of the boundary lines situated to the left and the right of the host vehicle is a dashed line and it is determined that the host vehicle is traveling on a freeway, controlling the travel of the host vehicle based on the boundary line on an oncoming vehicle side.
A printing apparatus comprising: a rotating shaft that is displaceable in an axial direction (Da) and is adapted to feed a recording medium by rotating; a print head (51, 52) for printing on the recording medium that is fed from the rotating shaft; a support member for supporting the recording medium between the rotating shaft and the print head; a process execution unit for performing a front surface modifying process on the recording medium supported by the support member; and a displacement mechanism for displacing the support member according to displacement of the rotating shaft. a rotating shaft that is displaceable in an axial direction (Da) and is adapted to feed a recording medium by rotating; a print head (51, 52) for printing on the recording medium that is fed from the rotating shaft; a support member for supporting the recording medium between the rotating shaft and the print head; a process execution unit for performing a front surface modifying process on the recording medium supported by the support member; and a displacement mechanism for displacing the support member according to displacement of the rotating shaft.
A vehicle, in particular a motor vehicle, - having a body with an outer sill, and - having a covering for the outer sill, with a covering region and a mounting region, which extend between first and second ends (11, 12) of the covering along a direction of longitudinal extension, - the mounting region extending in a first direction of transverse extension perpendicular to the direction of longitudinal extension and having mounting elements in order to be able to be mounted on an underside of the outer sill for a mounted state, and - the mounting region comprising a lateral edge facing away from the covering region in the direction of longitudinal extension, the lateral edge having recesses between mounting elements which are formed such that sections of the lateral edge of the mounting region extend in a recessed manner in the first direction of transverse extension (y) towards the covering region, - characterised in that the covering is positioned via the mounting elements of the mounting region on the underside of the outer sill, the vehicle being designed as an electric or hybrid motor vehicle and having at least one energy storage element, - the energy storage element being mounted with a mounting side of a housing region of the energy storage element facing towards an underside of the vehicle and in particular an underside of the outer sill of the vehicle in such a manner - that a respective attachment element of the energy storage element, in particular together with a spacer element, is arranged in the region of a recess of the mounting region of the covering of the outer sill. - having a body with an outer sill, and - having a covering for the outer sill, with a covering region and a mounting region, which extend between first and second ends (11, 12) of the covering along a direction of longitudinal extension, - the mounting region extending in a first direction of transverse extension perpendicular to the direction of longitudinal extension and having mounting elements in order to be able to be mounted on an underside of the outer sill for a mounted state, and - the mounting region comprising a lateral edge facing away from the covering region in the direction of longitudinal extension, the lateral edge having recesses between mounting elements which are formed such that sections of the lateral edge of the mounting region extend in a recessed manner in the first direction of transverse extension (y) towards the covering region, - characterised in that the covering is positioned via the mounting elements of the mounting region on the underside of the outer sill, the vehicle being designed as an electric or hybrid motor vehicle and having at least one energy storage element, - the energy storage element being mounted with a mounting side of a housing region of the energy storage element facing towards an underside of the vehicle and in particular an underside of the outer sill of the vehicle in such a manner - that a respective attachment element of the energy storage element, in particular together with a spacer element, is arranged in the region of a recess of the mounting region of the covering of the outer sill.
A method for recycling laminated glass comprising at least one polyvinyl butyral layer and at least one glass layer (30, 40), wherein the method comprises: shredding the laminated glass to produce glass and residual waste comprising PVB pieces with embedded glass particles; adding the residual waste in a vat comprising a separation fluid to produce a mixture of glass particles from the glass layers (30, 40) and PVB pieces from the one polyvinyl butyral layer, the separation fluid comprising water and butyl diglycol. shredding the laminated glass to produce glass and residual waste comprising PVB pieces with embedded glass particles; adding the residual waste in a vat comprising a separation fluid to produce a mixture of glass particles from the glass layers (30, 40) and PVB pieces from the one polyvinyl butyral layer, the separation fluid comprising water and butyl diglycol.
A piezoelectric element comprising: a first electrode layer which is stacked on a vibrating plate; a second electrode layer which is stacked on a side opposite to the vibrating plate with respect to the first electrode layer; a piezoelectric layer which is interposed between the first electrode layer and the second electrode layer; and a conductive layer which electrically connects the first electrode layer to external wiring, wherein a point of contact between the conductive layer and the first electrode layer is in a vibrating region of the vibrating plate; the conductive layer is formed on a plane of the vibrating plate; the piezoelectric element further comprises an insulating layer between the conductive layer and the first electrode layer; the conductive layer and the first electrode layer are electrically connected through a conductive hole which is formed in the vibrating region in the insulating layer; and characterized in that the conductive layer is formed between the vibrating plate and the piezoelectric layer. a first electrode layer which is stacked on a vibrating plate; a second electrode layer which is stacked on a side opposite to the vibrating plate with respect to the first electrode layer; a piezoelectric layer which is interposed between the first electrode layer and the second electrode layer; and a conductive layer which electrically connects the first electrode layer to external wiring, wherein a point of contact between the conductive layer and the first electrode layer is in a vibrating region of the vibrating plate; the conductive layer is formed on a plane of the vibrating plate; the piezoelectric element further comprises an insulating layer between the conductive layer and the first electrode layer; the conductive layer and the first electrode layer are electrically connected through a conductive hole which is formed in the vibrating region in the insulating layer; and characterized in that the conductive layer is formed between the vibrating plate and the piezoelectric layer.
A method, in a wireless communication transmitter, of reducing the peak to average power ratio (PAPR) of an aggregate wireless communication signal comprising two or more constituent signals, each modulated onto a carrier, while controlling the error vector magnitude of each constituent signal, the method comprising: adaptively allocating groups of correction tones to each constituent signal in response to one of an EVM limit associated with one or more of the signals and a desired signal amplitude; and injecting the correction tones into the aggregate signal so as to reduce the PAPR of the aggregate signal while complying with the EVM limits of the constituent signals, wherein the correction tones form a tone amplitude vector with K equally spaced sub-bands in frequency domain, grouped in M clusters of size { q 0, q 1,..., q M -1}, D = D 0, D 0,..., D 0} q 0, D 1, D 1,..., D 1} q 1,..., D M - 1, D M - 1,..., D M - 1} q M - 1 { K where M is the number of constituent signals, and the size of each cluster, q m, is at least equal to the number of frequency bins within the bandwidth allocated by the corresponding constituent signal, and wherein A is the (average) amplitude of a constituent signal, and wherein: a. when the constituent signals have equal power, q 0 ⁢ A 0 2 = q 1 ⁢ A 1 2 =..., the aggregate signal EVM, denoted EVM rms, is EVM rms = ∑ m = 0 M - 1 q m ⁢ D m 2 ∑ m = 0 M - 1 q m ⁢ A m 2 = 1 M ∑ m = 0 M - 1 EVM m 2; b. when the constituent signals have equal power spectral density, A 0 = A 1 =..., EVM rms, is EVM rms = ∑ m = 0 M - 1 q m ⁢ D m 2 ∑ m = 0 M - 1 q m ⁢ A m 2 = ∑ m = 0 M - 1 q m ⁢ D m 2 A 2 ∑ m = 0 M - 1 q m = ∑ m = 0 M - 1 q m EVM m 2 K; c. when the constituent signals are orthogonal frequency division multiplexed (OFDM) signals, the EVM is assigned at a subcarrier level by setting D k = EVM k · A k. adaptively allocating groups of correction tones to each constituent signal in response to one of an EVM limit associated with one or more of the signals and a desired signal amplitude; and injecting the correction tones into the aggregate signal so as to reduce the PAPR of the aggregate signal while complying with the EVM limits of the constituent signals, a. when the constituent signals have equal power, q 0 ⁢ A 0 2 = q 1 ⁢ A 1 2 =..., the aggregate signal EVM, denoted EVM rms, is EVM rms = ∑ m = 0 M - 1 q m ⁢ D m 2 ∑ m = 0 M - 1 q m ⁢ A m 2 = 1 M ∑ m = 0 M - 1 EVM m 2; b. when the constituent signals have equal power spectral density, A 0 = A 1 =..., EVM rms, is EVM rms = ∑ m = 0 M - 1 q m ⁢ D m 2 ∑ m = 0 M - 1 q m ⁢ A m 2 = ∑ m = 0 M - 1 q m ⁢ D m 2 A 2 ∑ m = 0 M - 1 q m = ∑ m = 0 M - 1 q m EVM m 2 K; c. when the constituent signals are orthogonal frequency division multiplexed (OFDM) signals, the EVM is assigned at a subcarrier level by setting D k = EVM k · A k.
A grain-oriented electrical steel sheet comprising closure domain regions X formed to divide magnetic domains of the steel sheet in a rolling direction, from one end to the other in the width direction of the steel sheet, in a linear or curved manner, and periodically in the rolling direction, provided that Expression is satisfied: − 500 t − 80 × s + 230 ≤ w ≤ − 500 t − 80 × s + 330, where t represents a sheet thickness in millimeters; w represents a smaller one of the widths in micrometers of the regions X measured on front and rear surfaces of the steel sheet, respectively, by using a Bitter method; and s represents an average number of the regions X present within one crystal grain.
Method for metallising a surface of a first part for motor vehicle, the metallisation being electroless, comprising a step of applying a solution of metal salts on the surface, preceded by a step of spraying an activation solution on the surface, called first spraying, the spraying step taking place in a closed chamber (16, 50), characterised in that it further comprises the steps of: - recovering the activation solution remaining in the closed chamber (16, 50) after its spraying, and - using the recovered activation solution to spray it on the surface of the first part or of a second part for motor vehicle, according to a step called second spraying. - recovering the activation solution remaining in the closed chamber (16, 50) after its spraying, and - using the recovered activation solution to spray it on the surface of the first part or of a second part for motor vehicle, according to a step called second spraying.
Pull-out guide for drawers or the like, comprising a body rail, a drawer rail, and an automatic retraction for retracting the drawer rail into its closed final position, wherein the automatic retraction is fixed to the body rail or drawer rail (2, 3) and has a pivotable coupling element that is guided in a longitudinally displaceable manner and interacts with a catch provided on the respective other rail (3, 2), and can be pivoted about a horizontal axis into a locked position, characterized in that the automatic retraction and the catch are arranged in a vertical intermediate space, which is formed between a horizontal web of the body rail and a horizontal web of the drawer rail, and the automatic retraction housing abuts the horizontal web of that rail to which the automatic retraction is fixed.
A purified, engineered bacterial minicell, comprising: (i) displayed on the surface of the bacterial minicell, an Fc-binding fusion protein that comprises a) an outer membrane anchoring domain and b) an Fc-binding portion of Protein G or an Fc-binding portion of Protein A; (ii) one or more bioactive molecules; and (iii) one or more Fc-containing targeting molecules bound to the Fc-binding portion of Protein G or Protein A, wherein the one or more Fc-containing targeting molecules recognize a eukaryotic antigen. (i) displayed on the surface of the bacterial minicell, an Fc-binding fusion protein that comprises a) an outer membrane anchoring domain and b) an Fc-binding portion of Protein G or an Fc-binding portion of Protein A; (ii) one or more bioactive molecules; and (iii) one or more Fc-containing targeting molecules bound to the Fc-binding portion of Protein G or Protein A, wherein the one or more Fc-containing targeting molecules recognize a eukaryotic antigen.
Method for controlling the formation of sheets in a paper production process, wherein an electric field is generated, paper fibres present in a watery suspension are exposed to the electric field, and a settling of the paper fibres in a fibre layer and/or an alignment of the paper fibres within the fibre layer is controlled by means of the electric field, wherein the paper fibres are exposed to the electric field, while they are located in the region of a headbox of the suspension on a sieve and in the region of a moving screen of a paper machine.
A electrode for a rechargeable lithium battery, comprising a current collector, and an active material layer disposed on the current collector, wherein (i) the active material layer comprises flake-shaped polyethylene particles and/or (ii) a coating layer directly disposed on the active material layer comprises flake-shaped polyethylene particles, the flake-shaped polyethylene particles having an average particle size of 1μm to 8μm and a ratio of the longest Feret diameter to the shortest Feret diameter ranging from 1.1 to 4.5, wherein the average particle size refers to the equivalent spherical diameter of the flake-shaped particles and is measured by automated image analysis by means of a particle size analyzer or microscopy by means of TEM photographs or SEM photographs. an active material layer disposed on the current collector, wherein (i) the active material layer comprises flake-shaped polyethylene particles and/or (ii) a coating layer directly disposed on the active material layer comprises flake-shaped polyethylene particles, (i) the active material layer comprises flake-shaped polyethylene particles and/or (ii) a coating layer directly disposed on the active material layer comprises flake-shaped polyethylene particles, the flake-shaped polyethylene particles having an average particle size of 1μm to 8μm and a ratio of the longest Feret diameter to the shortest Feret diameter ranging from 1.1 to 4.5, wherein the average particle size refers to the equivalent spherical diameter of the flake-shaped particles and is measured by automated image analysis by means of a particle size analyzer or microscopy by means of TEM photographs or SEM photographs.