mhurhangee/patent-ind-claim-en huggingface dataset:
An upper for a shoe, wherein said shoe comprises said upper and a sole , said upper comprising: - knitted areas with a low stitch density providing ventilation through the upper , - a lower edge configured to be connected to the sole of the shoe via injection moulding, characterised in that said lower edge is knitted with a high stitch density configured to limit the flow of moulding material through the lower edge of the knitted upper during an injection moulding of the sole . - knitted areas with a low stitch density providing ventilation through the upper , - a lower edge configured to be connected to the sole of the shoe via injection moulding, characterised in that said lower edge is knitted with a high stitch density configured to limit the flow of moulding material through the lower edge of the knitted upper during an injection moulding of the sole .
A method for congestion control in a data communication protocol employing acknowledged communication in which a transmitting node transmits data to a receiving node and the receiving node acknowledges receipt of the data, the method to be performed by the transmitting node and comprising: measuring a flight size indicating an amount of data sent by the transmitting node and not yet acknowledged by the receiving node; measuring a transmission rate, the transmission rate corresponding to a same instant as the flight size; determining a trend of the flight size; determining a trend of the transmission rate, wherein the trend is derived from a transmission rate gradient calculation, in which either the transmission rate measurements or the transmission rate gradient calculations or both, are filtered to reduce their temporal variability; detecting whether or not there is a congestion according to the determined trend of the transmission rate and the trend of the flight size; upon positive detection of the congestion, modifying the flight size ; and transmitting data while respecting a maximum amount of unacknowledged data which the transmitting node may transmit . measuring a flight size indicating an amount of data sent by the transmitting node and not yet acknowledged by the receiving node; measuring a transmission rate, the transmission rate corresponding to a same instant as the flight size; determining a trend of the flight size; determining a trend of the transmission rate, wherein the trend is derived from a transmission rate gradient calculation, in which either the transmission rate measurements or the transmission rate gradient calculations or both, are filtered to reduce their temporal variability; detecting whether or not there is a congestion according to the determined trend of the transmission rate and the trend of the flight size; upon positive detection of the congestion, modifying the flight size ; and transmitting data while respecting a maximum amount of unacknowledged data which the transmitting node may transmit .
A method for manufacturing a device (OPT) produced on a substrate in a first semiconductor material (SUB); the manufacturing method comprising the following steps: i- manufacturing at least one first microstructure (RO1) and one second microstructure (RO2) on the substrate (SUB), ii- manufacturing a connection microstructure (S1) for electrically connecting at least the first microstructure (RO1) to the second microstructure (RO2) by: • depositing a layer of an inorganic resin solution distributed over the substrate (SUB); • heating the device to a heating temperature (T) for a determined time (Δt) to evaporate the solvent from the deposited resin solution; • manufacturing a support in a dielectric material by solidifying, by means of a lithography method, a part of the deposited resin layer; the support comprising at least a first part linking the first microstructure (RO1) and the second microstructure (RO2); • depositing a first metallic layer on at least a part of the support comprising at least said first part linking the first microstructure (RO1) and the second microstructure (RO2). i- manufacturing at least one first microstructure (RO1) and one second microstructure (RO2) on the substrate (SUB), ii- manufacturing a connection microstructure (S1) for electrically connecting at least the first microstructure (RO1) to the second microstructure (RO2) by: • depositing a layer of an inorganic resin solution distributed over the substrate (SUB); • heating the device to a heating temperature (T) for a determined time (Δt) to evaporate the solvent from the deposited resin solution; • manufacturing a support in a dielectric material by solidifying, by means of a lithography method, a part of the deposited resin layer; the support comprising at least a first part linking the first microstructure (RO1) and the second microstructure (RO2); • depositing a first metallic layer on at least a part of the support comprising at least said first part linking the first microstructure (RO1) and the second microstructure (RO2). • depositing a layer of an inorganic resin solution distributed over the substrate (SUB); • heating the device to a heating temperature (T) for a determined time (Δt) to evaporate the solvent from the deposited resin solution; • manufacturing a support in a dielectric material by solidifying, by means of a lithography method, a part of the deposited resin layer; the support comprising at least a first part linking the first microstructure (RO1) and the second microstructure (RO2); • depositing a first metallic layer on at least a part of the support comprising at least said first part linking the first microstructure (RO1) and the second microstructure (RO2).
An injection device comprising: a housing comprising a syringe having a discharge nozzle which is movable between a retracted position in which the discharge nozzle is contained within the housing and an extended position in which the discharge nozzle extends from the housing ; and a syringe cap for enclosing the discharge nozzle and removable from the syringe by rotation relative to the syringe ; characterised by : a syringe carrier adapted to restrain rotation of the syringe relative to the housing as the cap is removed; wherein the syringe carrier comprises a grip adapted to restrain rotation of the syringe relative to the housing ; wherein the grip comprises at least one deformable rib . a housing comprising a syringe having a discharge nozzle which is movable between a retracted position in which the discharge nozzle is contained within the housing and an extended position in which the discharge nozzle extends from the housing ; and a syringe cap for enclosing the discharge nozzle and removable from the syringe by rotation relative to the syringe ; characterised by : a syringe carrier adapted to restrain rotation of the syringe relative to the housing as the cap is removed; wherein the syringe carrier comprises a grip adapted to restrain rotation of the syringe relative to the housing ; wherein the grip comprises at least one deformable rib . a syringe carrier adapted to restrain rotation of the syringe relative to the housing as the cap is removed; wherein the syringe carrier comprises a grip adapted to restrain rotation of the syringe relative to the housing ; wherein the grip comprises at least one deformable rib .
A method for welding a portion of seam area of an industrial woven fabric, characterized by comprising the steps of: providing said woven fabric seam area with a laser energy absorbing material which is applied to said fabric in a controlled manner so as to create a predetermined pattern of deposits, and focusing a laser source at discrete locations on said fabric seam area , thereby partially melting and permanently welding the fabric at said discrete locations, wherein said discrete locations are in a seam area of the fabric and wherein a width of the seam area as measured in a machine direction (MD) is a fraction of a width of a normal seam or a seam formed using conventional techniques of equal strength, said fraction being 0.7 or lower, wherein said fabric seam area has properties being the same, or substantially the same, as a body of the fabric, said properties including openness, adequate number of support points, and Fiber Support Index (FSI). providing said woven fabric seam area with a laser energy absorbing material which is applied to said fabric in a controlled manner so as to create a predetermined pattern of deposits, and focusing a laser source at discrete locations on said fabric seam area , thereby partially melting and permanently welding the fabric at said discrete locations, wherein said discrete locations are in a seam area of the fabric and wherein a width of the seam area as measured in a machine direction (MD) is a fraction of a width of a normal seam or a seam formed using conventional techniques of equal strength, said fraction being 0.7 or lower, wherein said fabric seam area has properties being the same, or substantially the same, as a body of the fabric, said properties including openness, adequate number of support points, and Fiber Support Index (FSI).
Nuclear magnetic flowmeter for measuring the flow of a multi-phase medium flowing through a measuring tube having a nuclear magnetic measuring device , wherein the nuclear magnetic measuring device is arranged around the measuring tube , wherein additionally a further measuring device implementing a different measuring principle is provided for flow measurement of the multi-phase medium flowing overall through the measuring tube, wherein the further measuring device is a differential pressure flow measuring device and wherein the differential pressure flow measuring device is designed for measuring the differential pressure of the multi-phase medium in the measuring tube , characterized in that the nuclear magnetic measuring device is designed for flow measurement of the liquid phase or phases, that at least one pressure gauge is provided at each of at least two differing measuring points in the longitudinal direction of the measuring tube , and that , in order to determine a measurement value for the gaseous phase of the multi-phase medium flowing through the measuring tube, the nuclear magnetic flowmeter is designed to subtract the measurement value obtained with the nuclear magnetic measuring device for the liquid phase or the liquid phases of the multi-phase medium flowing through the measuring tube from the measurement value obtained with the additional measuring device for the multi-phase medium flowing overall through the measuring tube.
Arc welding method for welding a weld seam with a reversing welding wire , characterised in that the feed speed, V D , is automatically reduced to a predetermined minimum speed value, V Dmin , if no short circuit, KS, is detected within a particular timespan, Δt, or within a particular displacement, Δs, of the welding wire during an arc firing phase.
An integrally geared compressor comprising: a drive gear configured to rotate by rotation of a motor ; an intermediate gear meshing with the drive gear ; a first drive side pinion meshing with the drive gear at a position away from the intermediate gear ; a first intermediate side pinion meshing with the intermediate gear at a position away from the drive gear ; a second intermediate side pinion meshing with the intermediate gear at a position away from the drive gear and the first intermediate side pinion ; a first compression unit connected to the first drive side pinion and configured to compress a working fluid (G) supplied from an outside by rotation of the first drive side pinion ; a second compression unit connected to the first intermediate side pinion and configured to compress a working fluid supplied from an outside by rotation of the first intermediate side pinion; characterized in that the integrally geared compressor further comprises a uniaxial multi-stage compressor connected to the second intermediate side pinion and configured to further compress the working fluid (G) compressed by at least one of the first compression unit and the second compression unit , and in that the intermediate gear meshes with the drive gear in an upper half portion of the drive gear , the second intermediate side pinion meshes with the intermediate gear in a lower half portion of the intermediate gear , and the motor and the uniaxial multi-stage compressor are placed on a foundation (G) positioned below the drive gear and the intermediate gear . a drive gear configured to rotate by rotation of a motor ; an intermediate gear meshing with the drive gear ; a first drive side pinion meshing with the drive gear at a position away from the intermediate gear ; a first intermediate side pinion meshing with the intermediate gear at a position away from the drive gear ; a second intermediate side pinion meshing with the intermediate gear at a position away from the drive gear and the first intermediate side pinion ; a first compression unit connected to the first drive side pinion and configured to compress a working fluid (G) supplied from an outside by rotation of the first drive side pinion ; a second compression unit connected to the first intermediate side pinion and configured to compress a working fluid supplied from an outside by rotation of the first intermediate side pinion; characterized in that the integrally geared compressor further comprises a uniaxial multi-stage compressor connected to the second intermediate side pinion and configured to further compress the working fluid (G) compressed by at least one of the first compression unit and the second compression unit , and in that the intermediate gear meshes with the drive gear in an upper half portion of the drive gear , the second intermediate side pinion meshes with the intermediate gear in a lower half portion of the intermediate gear , and the motor and the uniaxial multi-stage compressor are placed on a foundation (G) positioned below the drive gear and the intermediate gear .
An actuator component configured to cooperate with a housing to form a valve (100-106), the actuator component comprising: - a carrier attachable to the housing , wherein the carrier is of elongated shape having an upper surface and a bottom surface , - a plunger (125, 125-1, 125-2, 125-3) arranged on the carrier and comprising a sealing surface (125-3) arranged at a top end of the plunger (125, 125-1, 125-2, 125-3), - a shape memory alloy actuator arranged co-linearly with the plunger (125, 125-1, 125-2, 125-3) between the carrier and the plunger (125, 125-1, 125-2, 125-3) and configured to exert an actuation force onto the plunger (125, 125-1, 125-2, 125-3), and - a spring co-linearly arranged with the plunger (125, 125-1, 125-2, 125-3) between the carrier and the plunger (125, 125-1, 125-2, 125-3) and configured to exert a bias force onto the plunger (125, 125-1, 125-2, 125-3), wherein the plunger (125, 125-1, 125-2, 125-3), the shape memory alloy actuator , and the spring extend along the upper surface of the carrier , characterized by - an elastic member extending away from the upper surface of the carrier and configured to engage with a top plate to press the carrier against a bottom plate of the housing . - a carrier attachable to the housing , wherein the carrier is of elongated shape having an upper surface and a bottom surface , - a plunger (125, 125-1, 125-2, 125-3) arranged on the carrier and comprising a sealing surface (125-3) arranged at a top end of the plunger (125, 125-1, 125-2, 125-3), - a shape memory alloy actuator arranged co-linearly with the plunger (125, 125-1, 125-2, 125-3) between the carrier and the plunger (125, 125-1, 125-2, 125-3) and configured to exert an actuation force onto the plunger (125, 125-1, 125-2, 125-3), and - a spring co-linearly arranged with the plunger (125, 125-1, 125-2, 125-3) between the carrier and the plunger (125, 125-1, 125-2, 125-3) and configured to exert a bias force onto the plunger (125, 125-1, 125-2, 125-3), wherein the plunger (125, 125-1, 125-2, 125-3), the shape memory alloy actuator , and the spring extend along the upper surface of the carrier , characterized by - an elastic member extending away from the upper surface of the carrier and configured to engage with a top plate to press the carrier against a bottom plate of the housing . - an elastic member extending away from the upper surface of the carrier and configured to engage with a top plate to press the carrier against a bottom plate of the housing .
An intervertebral device, comprising: a base element having a top inner surface, and a first plurality of engaging elements on the top inner surface of the base element; a first body portion slidably attached to the base element and configured to move in at least a first direction with respect to the base element, the first body portion including a second plurality of engaging elements on a bottom surface of the first body portion , and a first plurality of curvilinear surfaces , a second body portion slidably attached to the base element and configured to move in at least a second direction with respect to the base element , the second body portion including a second plurality of curvilinear surfaces , each of the first plurality of curvilinear surfaces being configured to couple with a respective one of the second plurality of curvilinear surfaces , such that the second body portion at least rotates with respect to the base element as the first body portion moves in the first direction; one of the first plurality of engaging elements of the base element being configured to couple with successive ones of the second plurality of engaging elements as the first body portion moves in the first direction, such that the engaging elements become immovable in the presence of an compression force between the base element and the second body portion . a base element having a top inner surface, and a first plurality of engaging elements on the top inner surface of the base element; a first body portion slidably attached to the base element and configured to move in at least a first direction with respect to the base element, the first body portion including a second plurality of engaging elements on a bottom surface of the first body portion , and a first plurality of curvilinear surfaces , a second body portion slidably attached to the base element and configured to move in at least a second direction with respect to the base element , the second body portion including a second plurality of curvilinear surfaces , each of the first plurality of curvilinear surfaces being configured to couple with a respective one of the second plurality of curvilinear surfaces , such that the second body portion at least rotates with respect to the base element as the first body portion moves in the first direction; one of the first plurality of engaging elements of the base element being configured to couple with successive ones of the second plurality of engaging elements as the first body portion moves in the first direction, such that the engaging elements become immovable in the presence of an compression force between the base element and the second body portion .
A flat bed trailer for transporting an item of heavy machinery, the flat bed trailer comprising: a floor , a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; at least two restraining bars each having a restraining position in which the respective restraining bar is disposed substantially laterally across the trailer to restrain the item of heavy machinery when positioned on the flat bed trailer; a first bar retainer for retaining one of the restraining bars in its restraining position; a second bar retainer for releasably retaining the other restraining bar in its restraining position; a pair of longitudinally extending side walls ; a lateral guide bar ; and a pair of longitudinal guide bars extending substantially longitudinally along the floor of the trailer, characterised in that the lateral guide bar extends substantially laterally close to the floor across the trailer between the side walls and is slightly raised with respect to the longitudinal guide bars . a floor , a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; at least two restraining bars each having a restraining position in which the respective restraining bar is disposed substantially laterally across the trailer to restrain the item of heavy machinery when positioned on the flat bed trailer; a first bar retainer for retaining one of the restraining bars in its restraining position; a second bar retainer for releasably retaining the other restraining bar in its restraining position; a pair of longitudinally extending side walls ; a lateral guide bar ; and a pair of longitudinal guide bars extending substantially longitudinally along the floor of the trailer, characterised in that the lateral guide bar extends substantially laterally close to the floor across the trailer between the side walls and is slightly raised with respect to the longitudinal guide bars .
A locking device , comprising: a body having an inner chamber; a locking mechanism configured within the inner chamber of the body wherein a key slot of the locking mechanism is exposed at bottom surface of the body ; a shackle comprising a heel portion moveably secured with the locking mechanism and a toe portion wherein the shackle is movable between an unlocked position and a locked position; a cover being rotatably mounted on the bottom surface of the body , wherein the cover is rotatable between a first position and a second position wherein in the first position, the cover is adapted to close the exposed key slot to prevent access of the key slot and in the second position, the cover is adapted to expose the key slot ; the cover and body are provisioned to secure the cover in the first position by means of a secondary locking device thereby preventing the rotation of the cover from the first position to the second position; and a plurality of flanges extends laterally outwardly from the body and each of the flanges has a hole (HI), and wherein the cover comprises plurality of holes (H2) alignable with holes (H1) of the flanges of the body in the first position of the cover , wherein the aligned holes (H1, H2) are adapted to receive the secondary locking device to secure the cover in the first position. a body having an inner chamber; a locking mechanism configured within the inner chamber of the body wherein a key slot of the locking mechanism is exposed at bottom surface of the body ; a shackle comprising a heel portion moveably secured with the locking mechanism and a toe portion wherein the shackle is movable between an unlocked position and a locked position; a cover being rotatably mounted on the bottom surface of the body , wherein the cover is rotatable between a first position and a second position wherein in the first position, the cover is adapted to close the exposed key slot to prevent access of the key slot and in the second position, the cover is adapted to expose the key slot ; the cover and body are provisioned to secure the cover in the first position by means of a secondary locking device thereby preventing the rotation of the cover from the first position to the second position; and a plurality of flanges extends laterally outwardly from the body and each of the flanges has a hole (HI), and wherein the cover comprises plurality of holes (H2) alignable with holes (H1) of the flanges of the body in the first position of the cover , wherein the aligned holes (H1, H2) are adapted to receive the secondary locking device to secure the cover in the first position.