mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising a processing resource configured to: obtain a first indication of a confirmation, by an operator of a platform , of an alignment of one symbol of a first plurality of symbols with a second symbol as viewed in a head-mounted display of a head-mounting worn by the operator, the first plurality of symbols being projected by at least one optical apparatus disposed on the platform to a plurality of different viewing angles, the second symbol being projected onto the head-mounted display by a projection unit of the head-mounted display, wherein the head-mounting is aligned to a coordinate system of the platform based on a head tracking unit of the head-mounting; determine which symbol of the first plurality of symbols was aligned by the operator with the second symbol yielding a first symbol of the first plurality of symbols, the first symbol having first orientation data, the second symbol having second orientation data; and perform an alignment of the head-mounting and the head-mounted display at least based on the first orientation data, the second orientation data and third orientation data of the head-mounting obtained from the head tracking unit of the head-mounting. obtain a first indication of a confirmation, by an operator of a platform , of an alignment of one symbol of a first plurality of symbols with a second symbol as viewed in a head-mounted display of a head-mounting worn by the operator, the first plurality of symbols being projected by at least one optical apparatus disposed on the platform to a plurality of different viewing angles, the second symbol being projected onto the head-mounted display by a projection unit of the head-mounted display, wherein the head-mounting is aligned to a coordinate system of the platform based on a head tracking unit of the head-mounting; determine which symbol of the first plurality of symbols was aligned by the operator with the second symbol yielding a first symbol of the first plurality of symbols, the first symbol having first orientation data, the second symbol having second orientation data; and perform an alignment of the head-mounting and the head-mounted display at least based on the first orientation data, the second orientation data and third orientation data of the head-mounting obtained from the head tracking unit of the head-mounting.
Transition piece for a tower of a wind turbine, - with a cylindrical jacket piece , which comprises a jacket inner surface , a jacket outer surface and a connecting flange , - with a base piece , which closes off the jacket piece on one side at least in sections, - wherein the transition piece comprises at least one annular stiffening element , wherein the annular stiffening element is arranged below and at a distance from the connecting flange of the jacket piece inside and/or outside the jacket piece , - with at least three cylindrical elements , which are connected to the jacket piece in a material-bonded manner at least in sections and each have a connecting flange at their end facing away from the jacket piece , characterized in that the cylindrical elements are connected to the jacket piece in such a way that the jacket piece divides the cylindrical element at least in sections in its longitudinal extension into an outer part section and an inner part section , the outer part section being connected to the jacket outer surface and the inner part section being connected to the jacket inner surface . - with a cylindrical jacket piece , which comprises a jacket inner surface , a jacket outer surface and a connecting flange , - with a base piece , which closes off the jacket piece on one side at least in sections, - wherein the transition piece comprises at least one annular stiffening element , wherein the annular stiffening element is arranged below and at a distance from the connecting flange of the jacket piece inside and/or outside the jacket piece , - with at least three cylindrical elements , which are connected to the jacket piece in a material-bonded manner at least in sections and each have a connecting flange at their end facing away from the jacket piece ,
A continuous process for producing a polyether product having a hydroxyl equivalent weight of 200 to 2000, comprising: a) forming in a continuous reactor a mixture of a double metal cyanide catalyst, an alkylene oxide mixture containing propylene oxide and at least 60% by weight ethylene oxide based on the weight of the alkylene oxide, at least one alkoxylated initiator compound having at least one hydroxyl group, a hydroxyl equivalent weight of 70 to 200 but lower than that of the polyether product, and a polymerizate consisting of alkoxylated species having molecular weights greater than the initiator compound and up to and including molecular weight of the polyether product, and b) continuously adding additional catalyst, additional alkylene oxide mixture containing propylene oxide and at least 60% by weight ethylene oxide based on the weight of the alkylene oxide, and additional initiator compound to the continuous reactor under polymerization conditions and continuously withdrawing a product stream containing the polyether product from the continuous reactor, wherein: i) steps a) and b) are performed in the substantial absence of a magnesium, Group 3 - Group 15 metal or lanthanide series metal bonded to at least one alkoxide, aryloxy, carboxylate, acyl, pyrophosphate, phosphate, thiophosphate, dithiophosphate, phosphate ester, thiophosphate ester, amide, siloxide, hydride, oxide, carbamate or hydrocarbon anion and which is devoid of halide anions, and ii) the polyether product contains 50 to 90% by weight polymerized ethylene oxide. a) forming in a continuous reactor a mixture of a double metal cyanide catalyst, an alkylene oxide mixture containing propylene oxide and at least 60% by weight ethylene oxide based on the weight of the alkylene oxide, at least one alkoxylated initiator compound having at least one hydroxyl group, a hydroxyl equivalent weight of 70 to 200 but lower than that of the polyether product, and a polymerizate consisting of alkoxylated species having molecular weights greater than the initiator compound and up to and including molecular weight of the polyether product, and b) continuously adding additional catalyst, additional alkylene oxide mixture containing propylene oxide and at least 60% by weight ethylene oxide based on the weight of the alkylene oxide, and additional initiator compound to the continuous reactor under polymerization conditions and continuously withdrawing a product stream containing the polyether product from the continuous reactor, i) steps a) and b) are performed in the substantial absence of a magnesium, Group 3 - Group 15 metal or lanthanide series metal bonded to at least one alkoxide, aryloxy, carboxylate, acyl, pyrophosphate, phosphate, thiophosphate, dithiophosphate, phosphate ester, thiophosphate ester, amide, siloxide, hydride, oxide, carbamate or hydrocarbon anion and which is devoid of halide anions, and ii) the polyether product contains 50 to 90% by weight polymerized ethylene oxide.
Roller hemming head for fastening to a robot arm , - wherein the roller hemming head comprises a main body , a first tool half , a second tool half , a carriage , a linear guide , a displacement drive and a rotary drive , - wherein the first tool half comprises a turret head and at least two pressure rollers (10-13), - wherein the pressure rollers (10-13) are each mounted on the turret head so as to be rotatable about their longitudinal axis (L10-L13), - wherein the second tool half comprises a bearing block and at least one counterpart roller , - wherein the at least one counterpart roller is mounted on the bearing block so as to be rotatable about its longitudinal axis (L15), - wherein in each case a pressure roller (10-13) and a counterpart roller are aligned with one another in such a way that a roller pair for hem processing is formed, - wherein the turret head is mounted on the carriage so as to be rotatable about an axis of rotation (D9), - wherein the rotary drive is mounted on the carriage , - wherein the turret head is rotatable by the rotary drive in relation to the carriage about its axis of rotation (D9), characterized - in that the carriage is guided on the main body via the linear guide so as to be displaceable by the displacement drive toward the axis of rotation (D9) of the turret head in such a way that, in a first displacement position (A) of the turret head , the roller pair for the hem processing is formed and, in a second displacement position (B) of the turret head , the pressure roller (10-13) of the roller pair is at a spacing to the counterpart roller . - wherein the roller hemming head comprises a main body , a first tool half , a second tool half , a carriage , a linear guide , a displacement drive and a rotary drive , - wherein the first tool half comprises a turret head and at least two pressure rollers (10-13), - wherein the pressure rollers (10-13) are each mounted on the turret head so as to be rotatable about their longitudinal axis (L10-L13), - wherein the second tool half comprises a bearing block and at least one counterpart roller , - wherein the at least one counterpart roller is mounted on the bearing block so as to be rotatable about its longitudinal axis (L15), - wherein in each case a pressure roller (10-13) and a counterpart roller are aligned with one another in such a way that a roller pair for hem processing is formed, - wherein the turret head is mounted on the carriage so as to be rotatable about an axis of rotation (D9), - wherein the rotary drive is mounted on the carriage , - wherein the turret head is rotatable by the rotary drive in relation to the carriage about its axis of rotation (D9), characterized - in that the carriage is guided on the main body via the linear guide so as to be displaceable by the displacement drive toward the axis of rotation (D9) of the turret head in such a way that, in a first displacement position (A) of the turret head , the roller pair for the hem processing is formed and, in a second displacement position (B) of the turret head , the pressure roller (10-13) of the roller pair is at a spacing to the counterpart roller .
Device for producing a multiple-layer fibrous web, having a screen section for forming a multiple-layer fibrous web , a press section for further dewatering the multiple-layer fibrous web , and a drying section for drying the multiple-layer fibrous web , wherein the screen section comprises at least one first forming unit for forming a first layer of the multiple-layer fibrous web , and at least one second forming unit for forming a second layer of the multiple-layer fibrous web , and a compression zone , and the forming units for configuring the multiple-layer fibrous web are mutually disposed and configured such that the second layer is transferred onto the first layer in the compression zone so as to configure the multiple-layer fibrous web, wherein the press section comprises at least two last press nips , wherein the two last press nips for smoothing one side of the multiple-layer fibrous web are formed by a first press element and a second press element having a common counter element with a smooth surface, and wherein the multiple-layer fibrous web conjointly with a press belt is guided through the last-but-one press nip in such a manner that the second layer of the multiple-layer fibrous web contacts the smooth surface of the counter element , characterized in that a transfer belt is provided for directly acquiring the multiple-layer fibrous web at an acquisition location from the first forming unit and for the onward transportation of the multiple-layer fibrous web , and in that the press belt guided conjointly with the multiple-layer fibrous web through the last-but-one press nip is disposed for directly acquiring the multiple-layer fibrous web at a retrieval location from the transfer belt and for guiding the multiple-layer fibrous web to the press section .
A spatial light modulator, comprising a plurality of MEMS units arranged in an array, wherein each of the MEMS units is arranged to encode a pixel of a computer generated hologram reconstructing a present frame, and each of the MEMS units comprises a signal processing device , a light shielding portion and a driving device ; the signal processing device for a MEMS unit is configured for receiving position information that is obtained through Lohmann encoding by a computer of the pixel corresponding to said MEMS unit comprising the signal processing device , and the position information is position information of the light shielding portion when the present frame is displayed; the signal processing device is configured to transmit the position information of the light shielding portion 202 to the driving device when the present frame is displayed wherein the driving device is configured for in-plane moving the light shielding portion to a position corresponding to the position information of the light shielding portion when the present frame is displayed, in response to the received position information of the light shielding portion for the present frame.
A crusher unit comprising: a mainframe ; a crusher supported by the mainframe ; a primary motor carried by the mainframe to drive the crusher via a first drive belt extending around a first drive pulley at the primary motor and a first flywheel mounted at the crusher ; and a secondary motor carried by the mainframe to provide a secondary drive of the crusher ; characterised by : a second drive belt extending around a second drive pulley at the secondary motor and the first or a second flywheel mounted at the crusher , said second drive belt being aligned parallel to the first drive belt , wherein the secondary motor is movably mounted at the unit via a pivot arm to adjust a tension of the second drive belt . a mainframe ; a crusher supported by the mainframe ; a primary motor carried by the mainframe to drive the crusher via a first drive belt extending around a first drive pulley at the primary motor and a first flywheel mounted at the crusher ; and a secondary motor carried by the mainframe to provide a secondary drive of the crusher ; characterised by : a second drive belt extending around a second drive pulley at the secondary motor and the first or a second flywheel mounted at the crusher , said second drive belt being aligned parallel to the first drive belt , wherein the secondary motor is movably mounted at the unit via a pivot arm to adjust a tension of the second drive belt .
A cooking apparatus comprising: an inner wall forming a cooking chamber ; an outer wall enclosing the inner wall ; a microwave generating unit configured for emitting microwaves to a passage as a space enclosed by the inner wall and the outer wall ; an impedance converting unit (350-1, 350-2) configured to continuously change an impedance of the passage during an operational state of the cooking apparatus to heat food, the impedance converting unit (350-1, 350-2) including a variable element changing characteristic impedance of the passage in which the microwaves are spread; and an absorbent layer absorbing the microwaves spread along the passage and emitting infrared rays to the cooking chamber . an inner wall forming a cooking chamber ; an outer wall enclosing the inner wall ; a microwave generating unit configured for emitting microwaves to a passage as a space enclosed by the inner wall and the outer wall ; an impedance converting unit (350-1, 350-2) configured to continuously change an impedance of the passage during an operational state of the cooking apparatus to heat food, the impedance converting unit (350-1, 350-2) including a variable element changing characteristic impedance of the passage in which the microwaves are spread; and an absorbent layer absorbing the microwaves spread along the passage and emitting infrared rays to the cooking chamber .
Device , which is designed to be suitable for controlling a drive apparatus for traction of a vehicle , and which has a drive control apparatus and a monitoring apparatus , wherein the monitoring apparatus provides either a traction release control signal value (ST.1) or a traction lock control signal value (ST.2) in each case, characterised in that the monitoring apparatus is designed to be suitable for providing the drive control apparatus with the traction release control signal value (ST.1), under the effect of which the drive control apparatus is released for actuation of the drive apparatus if, in addition to a traction release request signal value (S1.1) due to an emergency braking request (SBA; SBA') and an additional traction lock request signal value (S2.2) due to a traction lock request (TSA), an additional traction release request signal value (S3.1) due to a traction release condition (TFB) acts on the monitoring apparatus .
Weighing equipment for weighing in motion objects or materials suspended in a lateral position relative to the weighing equipment comprising a chassis comprising: - a base (1.1) to secure the chassis to an external object; - a plate (1.2) for obtaining the weight of objects or materials; - at least one weighing element (3.1) being secured to the base (1.1) and responsible for measuring weight; - at least one standard element (3.2) which serves to establish a standard value with which the weighing equipment can compare the weight being measured by the weighing elements (3.1); characterised by: - the bottom side of the top of the plate (1.2) is in contact with the top side of the at least one weighing element (3.1); - the standard element (3.2) being in a position substantially centred with the chassis and not in contact with the plate (1.2), being secured to the base (1.1); - the standard element (3.2) comprising a standard weight (3.2.1) that is secured to the upper side of the standard element (3.2); - further comprising impact absorption means for the absorption of shocks and vibrations caused by the movement of the weighing equipment. - a base (1.1) to secure the chassis to an external object; - a plate (1.2) for obtaining the weight of objects or materials; - at least one weighing element (3.1) being secured to the base (1.1) and responsible for measuring weight; - at least one standard element (3.2) which serves to establish a standard value with which the weighing equipment can compare the weight being measured by the weighing elements (3.1); - the bottom side of the top of the plate (1.2) is in contact with the top side of the at least one weighing element (3.1); - the standard element (3.2) being in a position substantially centred with the chassis and not in contact with the plate (1.2), being secured to the base (1.1); - the standard element (3.2) comprising a standard weight (3.2.1) that is secured to the upper side of the standard element (3.2); - further comprising impact absorption means for the absorption of shocks and vibrations caused by the movement of the weighing equipment.
A holding device for a sample to be examined using a photoemission spectroscopy technique, the sample having a sample surface (Ss) and a back surface (Bs), the holding device comprising: - a container with an interior chamber , - a sample holder arranged on the container , the sample holder being adapted for attachment of the sample , - a heating area , which is thermally connected to the sample surface (Ss) when a sample is attached to the sample holder , - a fiber attachment means on the container for attachment of an optical fiber , wherein the holding device is configured such that, light from an optical fiber attached to the fiber attachment means is transferred through the interior chamber to the heating area , characterized in that the holding device comprises a reflector arranged in the interior chamber , wherein the holding device , the fiber attachment means and the reflector are arranged such that, when light is emitted from the optical fiber and a sample is attached to the sample holder , a majority of the light reflected from the heating area is reflected towards a reflective surface of the reflector . - a container with an interior chamber , - a sample holder arranged on the container , the sample holder being adapted for attachment of the sample , - a heating area , which is thermally connected to the sample surface (Ss) when a sample is attached to the sample holder , - a fiber attachment means on the container for attachment of an optical fiber , wherein the holding device is configured such that, light from an optical fiber attached to the fiber attachment means is transferred through the interior chamber to the heating area , characterized in that the holding device comprises a reflector arranged in the interior chamber , wherein the holding device , the fiber attachment means and the reflector are arranged such that, when light is emitted from the optical fiber and a sample is attached to the sample holder , a majority of the light reflected from the heating area is reflected towards a reflective surface of the reflector .
A visual behavior monitor wearing status detection system for detecting whether a visual behavior monitor , usable to monitor visual behavior of a user, is worn by the user, wherein the visual behavior monitor wearing status detection system comprises: sensors configured to obtain sensor data, and wherein the visual behavior monitor wearing status detection system is configured to process the sensor data to determine whether the visual behavior monitor is worn by the user; characterized by the visual behavior monitor wearing status detection system being further configured to combine the sensor data obtained from a first sensor and a second sensor of said sensors to statistically determine whether the user is correctly wearing the visual behavior monitor or is wearing the visual behavior monitor in a manner previously determined to be improper. sensors configured to obtain sensor data, and wherein the visual behavior monitor wearing status detection system is configured to process the sensor data to determine whether the visual behavior monitor is worn by the user; characterized by the visual behavior monitor wearing status detection system being further configured to combine the sensor data obtained from a first sensor and a second sensor of said sensors to statistically determine whether the user is correctly wearing the visual behavior monitor or is wearing the visual behavior monitor in a manner previously determined to be improper.