mhurhangee/patent-ind-claim-en huggingface dataset:
A projector-type vehicle headlamp, comprising: a first light source for emitting light; a lens through which the light exits the headlamp; and a first optics for receiving light from the first light source and directing the received light towards the lens , with the lens having a focal surface between the first optics and the lens , and with the lens having an optical axis, wherein the first optics is configured to generate multiple images of the first light source on the focal surface above an intersection line of the focal surface with a reference plane (p1, p2), with the reference plane (p1, p2) containing the optical axis of the lens , and with the reference plane (p1, p2) enclosing an angle (α) in the range of 0-45 degree with a horizontal plane when the headlamp is installed in a vehicle, wherein the first optics is a reflector, characterized in that the reflector comprises a curved reflecting surface having, as seen when the headlamp is installed in the vehicle, an upper edge , a lower edge , and a side edge connecting the upper edge and the lower edge , and wherein a light emitting surface of the first light source confronts the curved reflecting surface of the reflector, and wherein the side edge is a portion of an ellipse. a first light source for emitting light; a lens through which the light exits the headlamp; and a first optics for receiving light from the first light source and directing the received light towards the lens , with the lens having a focal surface between the first optics and the lens , and with the lens having an optical axis, wherein the first optics is configured to generate multiple images of the first light source on the focal surface above an intersection line of the focal surface with a reference plane (p1, p2), with the reference plane (p1, p2) containing the optical axis of the lens , and with the reference plane (p1, p2) enclosing an angle (α) in the range of 0-45 degree with a horizontal plane when the headlamp is installed in a vehicle, wherein the first optics is a reflector, characterized in that the reflector comprises a curved reflecting surface having, as seen when the headlamp is installed in the vehicle, an upper edge , a lower edge , and a side edge connecting the upper edge and the lower edge , and wherein a light emitting surface of the first light source confronts the curved reflecting surface of the reflector, and wherein the side edge is a portion of an ellipse.
A rotating shaft assembly , configured for a foldable electronic device, and including at least one rotating shaft component , wherein the rotating shaft component includes: a rotating bearing ; a gear sleeved on the rotating bearing ; a first rotating arm , where one end of the first rotating arm is fixedly connected to the gear ; and a second rotating arm , where a rack bar meshing with the gear is disposed at a first end of the second rotating arm , where the first rotating arm drives the gear to rotate around the rotating bearing , so that a second end of the second rotating arm moves towards a direction away from or close to the rotating bearing ; characterised in that the rack bar is a flexible rack bar, and a portion of the rack bar that meshes with the gear winds on the periphery of the gear ; wherein the rotating shaft assembly further comprises: a socket , where the socket is provided with an opening, at least a part of the rack bar is sandwiched between the socket and the gear , and the second rotating arm passes through the opening and extends out of the socket . a rotating bearing ; a gear sleeved on the rotating bearing ; a first rotating arm , where one end of the first rotating arm is fixedly connected to the gear ; and a second rotating arm , where a rack bar meshing with the gear is disposed at a first end of the second rotating arm , where the first rotating arm drives the gear to rotate around the rotating bearing , so that a second end of the second rotating arm moves towards a direction away from or close to the rotating bearing ; characterised in that the rack bar is a flexible rack bar, and a portion of the rack bar that meshes with the gear winds on the periphery of the gear ; wherein the rotating shaft assembly further comprises: a socket , where the socket is provided with an opening, at least a part of the rack bar is sandwiched between the socket and the gear , and the second rotating arm passes through the opening and extends out of the socket .
A method to manufacture a steel, casting die or tool, wherein the steel has the following composition, all percentages being indicated in weight percent: %C eq = 0.16 - 1.9 %C = 0.16 - 1.9 %N = 0 - 1.0 %B =0 - 0.6 %Cr < 1.8 %Ni =0 - 6 %Si = 0 - 1.4 %Mn = 0 - 3 %Al =0 - 2.5 %Mo =0 - 10 %W =0-10 %Ti =0-2 %Ta = 0 - 3 %Zr = 0 - 3 %Hf = 0 - 3 %V = 0 - 4 %Nb = 0 - 1.5 %Cu = 0 - 2 %Co = 0 - 6 the rest consisting of iron and trace elements wherein, % C eq = % ⁢ C + 0.86 ∗ % ⁢ N + 1.2 ∗ % ⁢ B , and %Mo + 1⁄2 · %W > 2.0, comprising providing a steel with both a bainite and a martensite domain of existence, wherein the steel is subjected to a thermal treatment comprising the following steps: a) Austenitization, b) Cooling while avoiding the formation of more than a 20% stable phases with a transformation temperature higher than bainite, c) Maintaining the temperature to transform at least 60% vol of remaining austenite between Ms+300°C and Ms-50°C, wherein Ms is the martensite start of transformation temperature; wherein more than 80% of the microstructure is bainitic with fine carbide-like constituents with a CVN higher than 8 Joule within at least 20mm from the surface of the thermally treated steel. a) Austenitization, b) Cooling while avoiding the formation of more than a 20% stable phases with a transformation temperature higher than bainite, c) Maintaining the temperature to transform at least 60% vol of remaining austenite between Ms+300°C and Ms-50°C, wherein Ms is the martensite start of transformation temperature;
A door skin comprising an exterior surface and an interior surface, the exterior surface containing a wood grain pattern formed therein, the wood grain pattern comprising: a) a plurality of grooves formed in the exterior surface of the door skin , the grooves being recessed from the exterior surface; and b) tonal portions formed in the exterior surface of the door skin , the tonal portions comprising a plurality of spaced depressions , characterized in that the latitudinal and longitudinal spacings between the depressions have different widths and the depressions have different depths. a) a plurality of grooves formed in the exterior surface of the door skin , the grooves being recessed from the exterior surface; and b) tonal portions formed in the exterior surface of the door skin , the tonal portions comprising a plurality of spaced depressions , characterized in that the latitudinal and longitudinal spacings between the depressions have different widths and the depressions have different depths.
A communications system, comprising a control apparatus and multiple remote apparatuses , wherein: the control apparatus is an independent baseband unit or a baseband unit in a macro base station; the control apparatus communicates with and connects to the multiple remote apparatuses , and the control apparatus controls data aggregation and distribution of the multiple remote apparatuses respectively; wherein the control apparatus receives data sent by a network management server, and distributes the data to the multiple remote apparatuses via transmission links and transmits data received from the multiple remote apparatuses through the transmission links to the network management server so that, for each of the multiple remote apparatuses , the control apparatus , the respective transmission link and the respective one of the multiple remote apparatuses are presented as only one base station to the network management server, wherein the only one base station provides a unified management interface to the network management server and the control apparatus is configured to manage the multiple remote apparatuses and transmission links between the control apparatus and the multiple remote apparatuses , and communicate with the network management device. the control apparatus is an independent baseband unit or a baseband unit in a macro base station; the control apparatus communicates with and connects to the multiple remote apparatuses , and the control apparatus controls data aggregation and distribution of the multiple remote apparatuses respectively; wherein the control apparatus receives data sent by a network management server, and distributes the data to the multiple remote apparatuses via transmission links and transmits data received from the multiple remote apparatuses through the transmission links to the network management server so that, for each of the multiple remote apparatuses , the control apparatus , the respective transmission link and the respective one of the multiple remote apparatuses are presented as only one base station to the network management server, wherein the only one base station provides a unified management interface to the network management server and the control apparatus is configured to manage the multiple remote apparatuses and transmission links between the control apparatus and the multiple remote apparatuses , and communicate with the network management device.
A refrigerator comprising: a cabinet configured to define an exterior boundary of the refrigerator with at least one opening therein; a first storage chamber defined by interior walls of the cabinet and configured to store food stuffs; a first door configured to open and close an access point to the first storage chamber by rotating about a vertical rotational axis; characterized in that the first door includes a second storage chamber accessible from an outside of the first door and a mounting part depressed in a direction of the cabinet ; and the refrigerator further comprises a second door installed in the mounting part to selectively open and close the second storage chamber by rotation about a vertical axis (Z), a thickness of the second door being equal to a thickness of the mounting part ; and a supporting member provided between the second storage chamber and the second door and rotatably connected to the second storage chamber and configured to rotate about a horizontal axis (X) which is parallel to the ground and perpendicular to the vertical axis (Z), wherein the refrigerator further comprises a motion conversion unit to convert rotation of the second door around the vertical axis (Z) into rotation of the supporting member with respect to the horizontal axis (X), wherein the motion conversion unit comprises a link member having one end being connected to the second door and the other end being connected to the supporting member , such that, when the second door rotates to be opened, the supporting member is rotated downward to be opened in a forward direction. a cabinet configured to define an exterior boundary of the refrigerator with at least one opening therein; a first storage chamber defined by interior walls of the cabinet and configured to store food stuffs; a first door configured to open and close an access point to the first storage chamber by rotating about a vertical rotational axis; characterized in that the first door includes a second storage chamber accessible from an outside of the first door and a mounting part depressed in a direction of the cabinet ; and the refrigerator further comprises a second door installed in the mounting part to selectively open and close the second storage chamber by rotation about a vertical axis (Z), a thickness of the second door being equal to a thickness of the mounting part ; and a supporting member provided between the second storage chamber and the second door and rotatably connected to the second storage chamber and configured to rotate about a horizontal axis (X) which is parallel to the ground and perpendicular to the vertical axis (Z), wherein the refrigerator further comprises a motion conversion unit to convert rotation of the second door around the vertical axis (Z) into rotation of the supporting member with respect to the horizontal axis (X), wherein the motion conversion unit comprises a link member having one end being connected to the second door and the other end being connected to the supporting member , such that, when the second door rotates to be opened, the supporting member is rotated downward to be opened in a forward direction.
A liquid discharge head comprising: a head body comprising a discharge hole configured to discharge a liquid; a driver IC configured to control driving of the head body ; a housing located on the head body and comprising an opening at a side surface; a heat dissipation plate located at the opening of the housing and configured to dissipate heat generated by the driver IC ; and a pressing member that is formed so as to be substantially U-shaped in a cross-sectional view in which an upper side thereof is open and includes: a pair of pressing portions that is configured to: be located substantially parallel to each other, and is formed to extend in a main scanning direction, and be opposed to the driver IC ; and a connecting portion that extends in the main scanning direction to connect the pair of pressing portions , wherein the pressing member is configured to press the driver IC against the heat dissipation plate by using the pair of pressing portions , and the heat dissipation plate is fixed to the pressing member . a head body comprising a discharge hole configured to discharge a liquid; a driver IC configured to control driving of the head body ; a housing located on the head body and comprising an opening at a side surface; a heat dissipation plate located at the opening of the housing and configured to dissipate heat generated by the driver IC ; and a pressing member that is formed so as to be substantially U-shaped in a cross-sectional view in which an upper side thereof is open and includes: a pair of pressing portions that is configured to: be located substantially parallel to each other, and is formed to extend in a main scanning direction, and be opposed to the driver IC ; and a connecting portion that extends in the main scanning direction to connect the pair of pressing portions , a pair of pressing portions that is configured to: be located substantially parallel to each other, and is formed to extend in a main scanning direction, and be opposed to the driver IC ; and be located substantially parallel to each other, and is formed to extend in a main scanning direction, and be opposed to the driver IC ; and a connecting portion that extends in the main scanning direction to connect the pair of pressing portions , wherein the pressing member is configured to press the driver IC against the heat dissipation plate by using the pair of pressing portions , and the heat dissipation plate is fixed to the pressing member .
An aqueous composition for conditioning human hair characterized in that it comprises at least one natural oil selected from argan oil, shea butter oil, olive oil, almond oil, avocado oil, ricinus oil, coconut oil, palm oil, sesame oil, peanut oil, whale oil, sunflower oil, peach kernel oil, wheat germ oil, macadamia nut oil, night primrose oil, jojoba oil, castor oil, or soya oil, lanolin, passiflora oil, black cumin oil, borage oil, grapeseed oil, macadamia oil, rosehip oil and hempseed oil, at least one surfactant as a solubilizer, at a total surfactant concentration in the composition in the range of 0.1 to 3% by weight calculated to the total of the composition, and a cationic or an amphoteric polymer with a cationic change density of at least 3.0 meq/g selected from Polyquaternium-6, Polyquaternium-7, Polyquaternium-16 and polyquaternium-39, wherein the composition is transparent and comprises at least 85% water, calculated to the total of the composition, with the condition that the composition is free of organic solvent.
A system for adjustably positioning an elevator guide rail , comprising: an adjustment device arranged on a moving platform and having a clamping portion and a powering portion, the clamping portion being arranged to be capable of clamping the elevator guide rail to be installed through a power output from the powering portion and moving in a first direction (D1), a second direction (D2) and/or a third direction (D3), and the moving platform being capable of moving up and down in the first direction; a detection device arranged to detect current movement characteristics of the clamping portion when the elevator guide rail is not clamped or has been clamped by the clamping portion; and a control device connected to the detection device and the adjustment device , and arranged to adjust the position of the clamping portion in place by controlling the powering portion according to the movement characteristics so that the clamped elevator guide rail can be positioned and installed at a target position; and characterized in that : the moving platform is an elevator car, and the system for adjustably positioning an elevator guide rail is detachably installed on a top frame of the elevator car. an adjustment device arranged on a moving platform and having a clamping portion and a powering portion, the clamping portion being arranged to be capable of clamping the elevator guide rail to be installed through a power output from the powering portion and moving in a first direction (D1), a second direction (D2) and/or a third direction (D3), and the moving platform being capable of moving up and down in the first direction; a detection device arranged to detect current movement characteristics of the clamping portion when the elevator guide rail is not clamped or has been clamped by the clamping portion; and a control device connected to the detection device and the adjustment device , and arranged to adjust the position of the clamping portion in place by controlling the powering portion according to the movement characteristics so that the clamped elevator guide rail can be positioned and installed at a target position; and characterized in that : the moving platform is an elevator car, and the system for adjustably positioning an elevator guide rail is detachably installed on a top frame of the elevator car.
A cardiac pacemaker system, comprising: a microprocessor , comprising a main control unit , a first timer , a second timer , input/output ports and a microprocessor serial interface , wherein each of the first timer , the second timer , the input/output ports and the microprocessor serial interface is connected to the main control unit ; and a peripheral IC , comprising a pacing and sensing control interface , a pacing control unit , a sensing control unit and a peripheral-IC serial interface , the pacing and sensing control interface being connected to each of the pacing control unit and the sensing control unit , wherein the second timer and the input/output ports are configured to communicate with the pacing and sensing control interface by using a first electrical level signal and a second electrical level signal, respectively; the pacing and sensing control interface , upon sensing an atrial or ventricular event, is configured to notify the second timer of the atrial or ventricular event by using the first electrical level signal; the input/output ports are configured to send a pacing request to the pacing and sensing control interface by using the second electrical level signal; the microprocessor serial interface is electrically connected to the peripheral-IC serial interface ; the microprocessor is configured to control the peripheral IC to configure parameters by using data communicated between the serial interfaces, and the microprocessor and the peripheral IC are on different integrated circuits. a microprocessor , comprising a main control unit , a first timer , a second timer , input/output ports and a microprocessor serial interface , wherein each of the first timer , the second timer , the input/output ports and the microprocessor serial interface is connected to the main control unit ; and a peripheral IC , comprising a pacing and sensing control interface , a pacing control unit , a sensing control unit and a peripheral-IC serial interface , the pacing and sensing control interface being connected to each of the pacing control unit and the sensing control unit , wherein the second timer and the input/output ports are configured to communicate with the pacing and sensing control interface by using a first electrical level signal and a second electrical level signal, respectively; the pacing and sensing control interface , upon sensing an atrial or ventricular event, is configured to notify the second timer of the atrial or ventricular event by using the first electrical level signal; the input/output ports are configured to send a pacing request to the pacing and sensing control interface by using the second electrical level signal; the microprocessor serial interface is electrically connected to the peripheral-IC serial interface ; the microprocessor is configured to control the peripheral IC to configure parameters by using data communicated between the serial interfaces, and the microprocessor and the peripheral IC are on different integrated circuits.
An insert comprising: - a core ; and - one or more extensions extending from the core; wherein the insert includes an elastomeric portion; and wherein the insert is adapted to be inserted into a tubular cavity so that vibrations of the cavity are reduced as compared to the cavity with no insert; characterized in that the elastomeric portion is formed from - up to 60% by weight of elastomer; - between 15% and 25% by weight polymeric material selected from acetates, ethylenes, acrylates, and combinations thereof; and - between 15% and 25% by weight filler selected from mineral fillers and stone type fillers. - a core ; and - one or more extensions extending from the core; - up to 60% by weight of elastomer; - between 15% and 25% by weight polymeric material selected from acetates, ethylenes, acrylates, and combinations thereof; and - between 15% and 25% by weight filler selected from mineral fillers and stone type fillers.
A gas generating composition, comprising: from 45 to 55 % by weight of a metal nitrate; from 25 to 30 % by weight of melamine nitrate; and from 5 to 15 % by weight of a nitrogen containing organic compound chosen from guanidine, nitroguanidine, guanidine nitrate, aminoguanidine, aminoguanidine nitrate, and aminoguanidine hydrogen carbonate. from 45 to 55 % by weight of a metal nitrate; from 25 to 30 % by weight of melamine nitrate; and from 5 to 15 % by weight of a nitrogen containing organic compound chosen from guanidine, nitroguanidine, guanidine nitrate, aminoguanidine, aminoguanidine nitrate, and aminoguanidine hydrogen carbonate.