mhurhangee/patent-ind-claim-en huggingface dataset:
A humanized antibody that specifically binds to human Tau comprising a phosphorylated Ser at position 422 (Tau(pS422)), wherein the antibody comprises in the heavy chain variable domain (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO: 08; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO: 09; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 10, and in the light chain variable domain (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 71; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 73; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 15, or (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 70; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 72; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 15, or (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 12; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 14; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 74, wherein the antibody has in the heavy chain variable domain at positions 4, 24 and 78 (numbering according to Kabat) a valine residue, wherein the antibody has in the heavy chain variable domain at position 71 (numbering according to Kabat) an arginine residue. (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 71; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 73; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 15, or (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 70; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 72; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 15, or (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 12; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 14; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 74,
A solid formulation comprising from about 75% to about 100% w/w of: - an 1,2,4-oxadiazole derivative of formula (A) and - citric acid and/or saccharin, wherein the molar ratio in said solid formulation between the total amount of citric acid and/or saccharin and the amount of said 1,2,4-oxadiazole derivative ranges from about 2 to about 20; wherein "about" preceding a figure means plus or less 10% of the value of said figure; and wherein "solid" means that the melting point of said formulation at atmospheric pressure is higher than 25°C. - an 1,2,4-oxadiazole derivative of formula (A) and - citric acid and/or saccharin, wherein the molar ratio in said solid formulation between the total amount of citric acid and/or saccharin and the amount of said 1,2,4-oxadiazole derivative ranges from about 2 to about 20; wherein "about" preceding a figure means plus or less 10% of the value of said figure; and wherein "solid" means that the melting point of said formulation at atmospheric pressure is higher than 25°C.
A chinstrap connector for a safety helmet , comprising a receptacle for attaching a chinstrap to the chinstrap connector and a stud for attachment of the chinstrap connector to the helmet , characterized by the stud being formed by at least two spaced stud retainers protruding from a body of the chinstrap connector , the body having a through-hole that opens in the space between the stud retainers and a pin which is placeable through the through-hole into the space to restrict a movement of the stud retainers toward each other.
Lighting device for plant growth comprising: - a casing housing a LED module held by a support , - a control apparatus for controlling the light beam emitted by the LED module , and - an optical module to cover the LED module and directing the light beam controlled by the control apparatus , wherein the LED module comprises a circular support housing a first group of LED light sources arranged on a first peripheral circumference of the circular support and a second group of LED light sources arranged on a second circumference inner to the first one, wherein the first group of LED light sources and the second group of LED light sources comprise a plurality of blue light LEDs and a plurality of red light LEDs , wherein the groups of LED light sources are arranged so that four red light LEDs are alternated to one blue light LED , wherein the control apparatus is configured to set the light beam emitted by the LEDs at a constant frequency and light intensity. - a casing housing a LED module held by a support , - a control apparatus for controlling the light beam emitted by the LED module , and - an optical module to cover the LED module and directing the light beam controlled by the control apparatus ,
A shower assembly comprising: an inlet port for receiving water from a water source; a reservoir for receiving water from the inlet port; and a plurality of drop outlet ports ; wherein each of the drop outlet ports is configured such that water passes from the reservoir through the plurality of drop outlet ports, forms a drop at each drop outlet port, and falls from each drop outlet port only as discrete drops of water; characterised in that the reservoir is not pressurized by a line pressure of the water source; and wherein the plurality of drop outlet ports comprise drop outlet ports having at least two different outlet geometries and a common bore size to form the discrete drops in at least two different sizes . an inlet port for receiving water from a water source; a reservoir for receiving water from the inlet port; and a plurality of drop outlet ports ; wherein each of the drop outlet ports is configured such that water passes from the reservoir through the plurality of drop outlet ports, forms a drop at each drop outlet port, and falls from each drop outlet port only as discrete drops of water; characterised in that the reservoir is not pressurized by a line pressure of the water source; and wherein the plurality of drop outlet ports comprise drop outlet ports having at least two different outlet geometries and a common bore size to form the discrete drops in at least two different sizes .
Method for lifting an object from a vessel deck , wherein a hoisting means on the vessel deck comprises a hoisting cable which is provided at an outer end with an attaching means for the object, wherein the object is connected to the attaching means and the object is taken up and displaced relative to the vessel deck using the attaching means, wherein the swinging movements of the attaching means and of the object connected thereto, occurring under the influence of wave and wind forces, are damped during displacement by a gyroscope which is connected to the hoisting cable, attaching means and/or object and which comprises a rotation-symmetrical body rotating around a primary rotation axis, wherein the primary rotation axis of the gyroscope is held at an angle of inclination other than zero to the hoisting cable direction, wherein the angle of inclination is varied linearly with the current angle of swing between the hoisting cable direction and the z-direction running perpendicularly of the vessel deck.
A process for producing a multilayer glass laminate panel comprising two glass sheets with a poly(vinyl butyral) interlayer sandwiched therebetween, the process comprising the steps of: providing two glass sheets; providing a single layer poly(vinyl butyral) interlayer, and inserting the interlayer between the two glass sheets to produce a laminate; removing air from the produced laminate; autoclaving the produced laminate by applying heat and pressure to the laminate for a hold time, wherein the heat applied is sufficient to achieve a maximum autoclave temperature in the range of from 110°C to 155°C, wherein the pressure applied is sufficient to achieve a maximum autoclave pressure in the range of from 2 to 9 bars, and the hold time is in a range of from 10 minutes to 60 minutes, wherein the glass laminate panel is free of bubbles at the edges of the laminate. providing two glass sheets; providing a single layer poly(vinyl butyral) interlayer, and inserting the interlayer between the two glass sheets to produce a laminate; removing air from the produced laminate; autoclaving the produced laminate by applying heat and pressure to the laminate for a hold time, wherein the heat applied is sufficient to achieve a maximum autoclave temperature in the range of from 110°C to 155°C, wherein the pressure applied is sufficient to achieve a maximum autoclave pressure in the range of from 2 to 9 bars, and the hold time is in a range of from 10 minutes to 60 minutes, wherein the glass laminate panel is free of bubbles at the edges of the laminate.
Medical apparatus operated and controlled via a display (D), with the following modules, being in data exchange: - a control unit for controlling a display (D) for operating the medical device , which is intended to determine a state of the medical device from detected signals and to calculate control commands for the state-dependent controlling of the display (D) by means of a control logic , wherein, depending on the detected state, different state-specific menus are presented on a display in order to support the user in operating the device and/or to point out to him any errors and/or next steps; - operating means which are connected to the medical device and have to be operated for the operation of the medical device ; - a display (D) on which display outputs are output from a graphics memory for operating the medical device and/or its operating means and which is intended for operating and controlling the medical device , the graphics memory being designed to store display outputs and a state associated with the display output; - a sensor unit (S), which is arranged on the medical device and on selected operating means and which is intended to automatically detect a state of the medical device and the respective operating means and to forward them to the control unit for calculation of the control commands and to automatically detect signals and forward them to the control unit ; and where a display output is shown for exactly that operating means on which a change of state has been detected. - a control unit for controlling a display (D) for operating the medical device , which is intended to determine a state of the medical device from detected signals and to calculate control commands for the state-dependent controlling of the display (D) by means of a control logic , wherein, depending on the detected state, different state-specific menus are presented on a display in order to support the user in operating the device and/or to point out to him any errors and/or next steps; - operating means which are connected to the medical device and have to be operated for the operation of the medical device ; - a display (D) on which display outputs are output from a graphics memory for operating the medical device and/or its operating means and which is intended for operating and controlling the medical device , the graphics memory being designed to store display outputs and a state associated with the display output; - a sensor unit (S), which is arranged on the medical device and on selected operating means and which is intended to automatically detect a state of the medical device and the respective operating means and to forward them to the control unit for calculation of the control commands and to automatically detect signals and forward them to the control unit ; and
Bicycle frame having at least one upper tube , at least one lower tube and a control tube , the upper tube , the lower tube and the control tube being interconnected by means of a connecting part , the connecting part having a central portion connected to the lower tube , a front connecting limb and a rear connecting limb , and the connecting limbs being arranged approximately in a V shape relative to the relative to the lower tube , characterised by a lower tube having a greater cross section than the upper tube and the lower tube for removable mounting of at least one separate energy store, in particular a battery pack , the front connecting limb having a cross section which tapers towards the control tube , and the rear connecting limb having a cross section which tapers towards the upper tube .
A failure diagnosis method of an engine outlet-side outlet coolant temperature sensor for a vehicle, the failure diagnosis method comprising: determining, by a controller, when a flow control valve is in a flow stop state that stagnates a flow of coolant by the flow control valve, characterized by counting, by the controller, a flow stop time when the flow control valve is determined by the controller to be in the flow stop state; and diagnosing, by the controller, as a failure of the engine outlet-side coolant temperature sensor when the flow stop time is equal to or greater than a reference time and when the flow stop state is maintained by the flow control valve. determining, by a controller, when a flow control valve is in a flow stop state that stagnates a flow of coolant by the flow control valve, characterized by counting, by the controller, a flow stop time when the flow control valve is determined by the controller to be in the flow stop state; and diagnosing, by the controller, as a failure of the engine outlet-side coolant temperature sensor when the flow stop time is equal to or greater than a reference time and when the flow stop state is maintained by the flow control valve.
Seat arrangement in a vehicle, with at least one seat and at least one safety device , which is assigned to the seat , for an occupant sitting on the seat , wherein the safety device is pivotable between a folded-up non-use position and an unfolded side support position which is arranged laterally next to the occupant in the direction of travel of the vehicle and supports a shoulder region and/or thorax region of the occupant , wherein the safety device consists of at least two sub-elements , and the first sub-element is pivotable relative to the seat about a first axis of rotation arranged on the seat side or body side, and the second sub-element is pivotable relative to the first sub-element about a second axis of rotation , wherein the first axis of rotation and the second axis of rotation are arranged in mutually averted end portions of the first sub-element , characterized in that the axes of rotation are oriented parallel to each other and extend horizontally in the transverse direction of the vehicle, and in that an end portion of the second sub-element averted from the second axis of rotation is fixable releasably on the seat side in the side support position, wherein a fixing means which can be releasably connected to a seat-side fixing means is arranged on the end portion of the second sub-element , and/or the end portion of the second sub-element is fixable releasably to a guide rod of a headrest in the side support position.
A method for producing a sintered ore by charging a sintering raw material containing a powder ore and a carbonaceous material onto a circulatory moving pallet to form a charged layer, igniting the carbonaceous material on the surface of the charged layer, introducing air above the charged layer containing a gaseous fuel diluted to not more than a lower limit of combustion concentration with wind boxes arranged below the pallet into the charged layer by suction and combusting the gaseous fuel and the carbonaceous material in the charged layer, wherein the gaseous fuel is supplied in a region not more than 40% of a machine length ranging from an ignition furnace to an ore removing portion, characterized in that : the concentration of the gaseous fuel contained in the air is 1/100 to 1/5 of the lower limit of combustion concentration; and more than 50% of a total supply of the gaseous fuel is supplied in a front 1/3 portion of the region. the concentration of the gaseous fuel contained in the air is 1/100 to 1/5 of the lower limit of combustion concentration; and more than 50% of a total supply of the gaseous fuel is supplied in a front 1/3 portion of the region.
A method for indicating information, the method comprising: generating, by a reporting access point, AP, a Reduced Neighbor Report, RNR, element carried in a management frame, the RNR element comprises more than one neighbor AP information fields, the neighbor AP information field comprises a target beacon transmission time, TBTT, information field for a reported AP, wherein the TBTT information field for the reported AP comprises a neighbor AP TBTT offset subfield for the reported AP; and transmitting, by the reporting AP, the RNR element; wherein if the reported AP being a non-transmitted BSSID in a multiple BSSID set, the neighbor AP TBTT offset subfield for the reported AP is set to a value of a TBTT offset of an AP with a transmitted BSSID from an immediately prior TBTT of the reporting AP that transmits the RNR element, and wherein the AP with the transmitted BSSID is in the multiple BSSID set that comprises the reported AP ; wherein if the reported AP being a transmitted BSSID in a multiple BSSID set , the neighbor AP TBTT offset subfield for the reported AP is set to a value of a TBTT offset of the reported AP from the immediately prior TBTT of the reporting AP that transmits the RNR element; and wherein within the multiple BSSID set the AP with the transmitted BSSID is the only AP that is allowed to transmit a beacon frame or a probe response, and wherein the reported AP with the non-transmitted BSSID is not allowed to transmit a beacon frame or a probe response. generating, by a reporting access point, AP, a Reduced Neighbor Report, RNR, element carried in a management frame, the RNR element comprises more than one neighbor AP information fields, the neighbor AP information field comprises a target beacon transmission time, TBTT, information field for a reported AP, wherein the TBTT information field for the reported AP comprises a neighbor AP TBTT offset subfield for the reported AP; and transmitting, by the reporting AP, the RNR element; wherein if the reported AP being a non-transmitted BSSID in a multiple BSSID set, the neighbor AP TBTT offset subfield for the reported AP is set to a value of a TBTT offset of an AP with a transmitted BSSID from an immediately prior TBTT of the reporting AP that transmits the RNR element, and wherein the AP with the transmitted BSSID is in the multiple BSSID set that comprises the reported AP ; wherein if the reported AP being a transmitted BSSID in a multiple BSSID set , the neighbor AP TBTT offset subfield for the reported AP is set to a value of a TBTT offset of the reported AP from the immediately prior TBTT of the reporting AP that transmits the RNR element; and wherein within the multiple BSSID set the AP with the transmitted BSSID is the only AP that is allowed to transmit a beacon frame or a probe response, and wherein the reported AP with the non-transmitted BSSID is not allowed to transmit a beacon frame or a probe response.
An arc welding device for carrying out welding while repeatedly generating a cycle constituted by a short circuit state and an arc state between a consumable electrode and a welding member (W), the arc welding device comprising: a detection unit configured to detect a length of a present-cycle short circuit generation period; and characterized by : an adjustment unit configured to: increase an increase rate of a short circuit current in a next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes larger; and reduce the increase rate of a short circuit current in the next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes smaller. a detection unit configured to detect a length of a present-cycle short circuit generation period; and characterized by : an adjustment unit configured to: increase an increase rate of a short circuit current in a next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes larger; and reduce the increase rate of a short circuit current in the next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes smaller.
A trainable transceiver for transmitting signals to a remote device , the trainable transceiver comprising: a programmable oscillator for generating a signal having a selected reference frequency; an RF transceiver configured to receive an RF signal during a training mode in order to learn characteristics of the received RF signal, and to transmit an RF signal to the remote device in an operating mode where the transmitted RF signal includes the learned characteristics of the received RF signal, wherein the RF transceiver receives the reference frequency from the programmable oscillator and uses the reference frequency to learn the characteristics of the received RF signal and for generating the transmitted RF signal; and a controller coupled to the RF transceiver and the programmable oscillator , wherein during the operating mode, the controller is configured to select frequency control data representing a frequency for an RF signal to be transmitted by the RF transceiver and to select the selected reference frequency of the signal generated by the programmable oscillator as a function of the frequency control data, wherein the programmable oscillator is a Micro-Electrical-Mechanical Systems programmable oscillator for generating different reference frequencies. a programmable oscillator for generating a signal having a selected reference frequency; an RF transceiver configured to receive an RF signal during a training mode in order to learn characteristics of the received RF signal, and to transmit an RF signal to the remote device in an operating mode where the transmitted RF signal includes the learned characteristics of the received RF signal, wherein the RF transceiver receives the reference frequency from the programmable oscillator and uses the reference frequency to learn the characteristics of the received RF signal and for generating the transmitted RF signal; and a controller coupled to the RF transceiver and the programmable oscillator , wherein during the operating mode, the controller is configured to select frequency control data representing a frequency for an RF signal to be transmitted by the RF transceiver and to select the selected reference frequency of the signal generated by the programmable oscillator as a function of the frequency control data, wherein the programmable oscillator is a Micro-Electrical-Mechanical Systems programmable oscillator for generating different reference frequencies.