mhurhangee/patent-ind-claim-en huggingface dataset:
A handover method, the method comprising: transmitting, by a mobile device, a request for data to a wireless local area network (step 301); receiving data from the wireless local area network (step 302); checking integrity of the received data (step 304); determining, if the received data lacks integrity, whether the received data is received within a preset threshold time from a preset reference time (step 305), the preset reference time corresponding to a point in time at which the mobile device makes the request for data; retrieving, if the received data was received within the preset threshold time, an integrity failure count and a retransmission count for the received data from a storage unit; and performing, if the integrity failure count exceeds a preset maximum allowed number of failures and if the retransmission count exceeds a preset maximum allowed number of retransmissions (step 310), handover from the wireless local area network to a wireless wide area network (step 311). transmitting, by a mobile device, a request for data to a wireless local area network (step 301); receiving data from the wireless local area network (step 302); checking integrity of the received data (step 304); determining, if the received data lacks integrity, whether the received data is received within a preset threshold time from a preset reference time (step 305), the preset reference time corresponding to a point in time at which the mobile device makes the request for data; retrieving, if the received data was received within the preset threshold time, an integrity failure count and a retransmission count for the received data from a storage unit; and performing, if the integrity failure count exceeds a preset maximum allowed number of failures and if the retransmission count exceeds a preset maximum allowed number of retransmissions (step 310), handover from the wireless local area network to a wireless wide area network (step 311).
A robotic work tool system for defining a working area in which at least one robotic work tool subsequently is intended to operate, wherein the robotic work tool system comprises at least one controller being configured to: - receive sensor data for pose estimation and event data relating to a plurality of events of at least one robotic work tool moving within the working area , wherein the received sensor data and event data are associated with each other in time; - determine positions for the plurality of events based on the received sensor data associated with the respective event data; - determine features reflecting the working area by relating positions associated with corresponding events with each other; - adjust the determined positions based on the determined features by, for each determined feature, comparing the respective determined positions with each other; and - determine, based on the adjusted positions of the determined features, a map defining the working area , wherein the robotic work tool system is characterized in that the at least one controller is configured to determine features reflecting the working area by: - categorize, based on the received event data, the determined positions into different categories; and - for each category, add the determined positions into a feature map, wherein the feature map corresponds to the respective feature. - receive sensor data for pose estimation and event data relating to a plurality of events of at least one robotic work tool moving within the working area , wherein the received sensor data and event data are associated with each other in time; - determine positions for the plurality of events based on the received sensor data associated with the respective event data; - determine features reflecting the working area by relating positions associated with corresponding events with each other; - adjust the determined positions based on the determined features by, for each determined feature, comparing the respective determined positions with each other; and - determine, based on the adjusted positions of the determined features, a map defining the working area , wherein the robotic work tool system is characterized in that the at least one controller is configured to determine features reflecting the working area by: - categorize, based on the received event data, the determined positions into different categories; and - for each category, add the determined positions into a feature map, wherein the feature map corresponds to the respective feature.
An imaging system (S) comprising: an imaging device consisting of one camera unit comprising a lens part ; wherein the camera unit is configured to image an imaging subject on an imaging optical axis (AX); a servomotor configured to move the lens part on the imaging optical axis (AX) in order to adjust a focal position of the lens part to the position of the imaging subject; an imaging control part configured to control the servomotor ; and a calculation unit configured to acquire data relating to a position in direction of the imaging optical axis (AX) and a size of the imaging subject based on image information acquired by the imaging device through the imaging, wherein the calculation unit is configured to acquire change information (α) relating to a focal position change, the change being caused by interposition of a light transmitting member (1,18,81,L) when the light transmitting member is interposed on the imaging optical axis (AX) during the imaging, and the calculation unit is configured to correct the data based on the change information (α), and wherein the imaging control part is configured to control the servomotor so as to move the lens part to a predetermined position on the optical axis (AX) to adjust the focal position of the lens part corresponding to the correction based on the change information (α) before the acquisition of the position and the size of the imaging subject. an imaging device consisting of one camera unit comprising a lens part ; wherein the camera unit is configured to image an imaging subject on an imaging optical axis (AX); a servomotor configured to move the lens part on the imaging optical axis (AX) in order to adjust a focal position of the lens part to the position of the imaging subject; an imaging control part configured to control the servomotor ; and a calculation unit configured to acquire data relating to a position in direction of the imaging optical axis (AX) and a size of the imaging subject based on image information acquired by the imaging device through the imaging, wherein the calculation unit is configured to acquire change information (α) relating to a focal position change, the change being caused by interposition of a light transmitting member (1,18,81,L) when the light transmitting member is interposed on the imaging optical axis (AX) during the imaging, and the calculation unit is configured to correct the data based on the change information (α), and wherein the imaging control part is configured to control the servomotor so as to move the lens part to a predetermined position on the optical axis (AX) to adjust the focal position of the lens part corresponding to the correction based on the change information (α) before the acquisition of the position and the size of the imaging subject.
An elevator system comprising: an elevator car having an elevator car subsystem; a guide rail to guide the elevator car along a hoistway ; and a wireless power supply of the elevator car, the wireless power supply comprising: primary windings positioned along the hoistway; permanent magnets coupled to the elevator car, the primary windings and permanent magnets defining a linear motor for imparting motion to the elevator car in response to a drive signal; and secondary windings coupled to the elevator car, the secondary windings arranged to generate a current to power the elevator car subsystem; characterized in that the primary windings and the secondary windings each including three phases and each being arranged in the same repeating pattern. an elevator car having an elevator car subsystem; a guide rail to guide the elevator car along a hoistway ; and a wireless power supply of the elevator car, the wireless power supply comprising: primary windings positioned along the hoistway; permanent magnets coupled to the elevator car, the primary windings and permanent magnets defining a linear motor for imparting motion to the elevator car in response to a drive signal; and secondary windings coupled to the elevator car, the secondary windings arranged to generate a current to power the elevator car subsystem; characterized in that primary windings positioned along the hoistway; permanent magnets coupled to the elevator car, the primary windings and permanent magnets defining a linear motor for imparting motion to the elevator car in response to a drive signal; and secondary windings coupled to the elevator car, the secondary windings arranged to generate a current to power the elevator car subsystem; characterized in that the primary windings and the secondary windings each including three phases and each being arranged in the same repeating pattern.
Locking device comprising: - a support , - a first locking member (20, 20', 20") and a second locking member (30, 30', 30"), the first locking member (20, 20', 20") being mounted on the support so as to move between a locked position and an unlocked position, the first locking member (20, 20', 20") engaging with the second locking member when in the locked position, - a shape-memory member having a first length (L 1 ) when not activated and a second length (L 2 ) when activated, - an intermediate member movable between a retaining position and a release position, the intermediate member in the retaining position retaining the first locking member (20, 20', 20") in the locked position and the intermediate member in the release position allowing the first locking member (20, 20', 20") to move to the unlocked position, the shape-memory member is connected to the intermediate member so as to move the intermediate member to the release position when the shape-memory member is activated, and - a return device exerting a first return force (F 1 ) on the shape-memory member when the shape-memory member has the first length (L 1 ) and a second force (F 2 ) on the shape-memory member when the shape-memory member has the second length (L 2 ), characterized in that the first return force (F 1 ) is greater than the second return force (F 2 ). - a support , - a first locking member (20, 20', 20") and a second locking member (30, 30', 30"), the first locking member (20, 20', 20") being mounted on the support so as to move between a locked position and an unlocked position, the first locking member (20, 20', 20") engaging with the second locking member when in the locked position, - a shape-memory member having a first length (L 1 ) when not activated and a second length (L 2 ) when activated, - an intermediate member movable between a retaining position and a release position, the intermediate member in the retaining position retaining the first locking member (20, 20', 20") in the locked position and the intermediate member in the release position allowing the first locking member (20, 20', 20") to move to the unlocked position, the shape-memory member is connected to the intermediate member so as to move the intermediate member to the release position when the shape-memory member is activated, and - a return device exerting a first return force (F 1 ) on the shape-memory member when the shape-memory member has the first length (L 1 ) and a second force (F 2 ) on the shape-memory member when the shape-memory member has the second length (L 2 ),
A fluidic valve (10; 20; 30; 40) comprising a first zone (I) and a second zone (II) separated by an aperture sealed by a deformable element (14; 24; 34; 44), wherein in said first zone (I) there is a shape memory alloy wire (15; 25; 35; 45) secured to a stationary surface (17; 27; 37; 47) and acting on a first surface of said deformable element (14; 24; 34; 44) either directly or through a piston (36'; 46'), in said second zone (II) there are at least two ports (11, 12; 21, 22; 31, 32; 41, 42, 42') and a plunger connected to a second surface of the deformable element (14; 24; 34; 44), opposite to said first surface, and suitable to close one of said ports (12; 22, 32; 42, 42'), characterized in that a bypass channel (13; 23; 33; 43) permanently connects the first zone (I) to the second zone (II) through a first end aperture (131; 231; 331; 431) positioned in the first zone (I) and a second end aperture (132; 232; 332; 432) positioned in the second zone (II).
A pre-treatment coating, comprising: an evaporable solvent; a matrix, including: from 50 wt% to 80 wt% of a fixer which is a polyvalent metal salt, and from 5 wt% to 20 wt% of a latex; and a wax at from 5 wt% to 30 wt%, wherein weight percentages of the matrix and the wax are based on a total amount that is present in the resulting coating layer after removal of the evaporable solvent; and, wherein the latex has a Tg range from -25 °C to 100 °C (measured by Differential Scanning Calorimetry, DSC); and wherein the wax is in form of wax particles; and wherein at least a portion of the wax particles have a particle size that is greater than an average thickness of the matrix applied to the media substrate. an evaporable solvent; a matrix, including: from 50 wt% to 80 wt% of a fixer which is a polyvalent metal salt, and from 5 wt% to 20 wt% of a latex; and from 50 wt% to 80 wt% of a fixer which is a polyvalent metal salt, and from 5 wt% to 20 wt% of a latex; and a wax at from 5 wt% to 30 wt%,
A shifting drum for the tobacco processing industry with receiving troughs for rod-shaped articles for the tobacco processing industry, in particular filter rods and/or filter pieces and/or segmented products, wherein the shifting drum can be rotated about an axis of rotation (A), wherein the shifting drum has two rows (R1, R2) arranged next to each other of receiving troughs arranged one behind the other along the transverse axis in the circumferential direction, wherein the shifting drum is configured so that the rod-shaped articles can be shifted or are shifted along the longitudinal axis in the receiving troughs (31; 32) of one row (R1, R2) or in the receiving troughs of both rows (R1, R2) during or upon transporting the rod-shaped articles in the transverse axial direction, wherein the receiving troughs of both rows (R1, R2) each have a groove bottom , wherein at least in the region of the ends of the receiving troughs of the first row (R1) and the ends of the receiving troughs of the second row (R2) which are arranged opposite each other, the radial distance of the groove bottom of the receiving troughs of the first row (R1) from the axis of rotation (A) and the radial distance of the groove bottom of the receiving troughs of the second row (R2) from the axis of rotation (A) are different, wherein the receiving troughs of the first row (R1), of which the radial distance of the groove bottom of the receiving troughs from the axis of rotation (A) of the shifting drum is greater than the radial distance of the groove bottom of the receiving troughs of the second row (R2) from the axis of rotation (A) of the shifting drum , are each designed as lateral limiters for the receiving troughs of the second row (R2) at least in the region of the ends of the receiving troughs of the first row (R1) and the ends of the receiving troughs of the second row (R2) which are arranged opposite each other.
A modified shaped heat exchanger hot air inlet and hot air outlet comprising: a first heat exchanger manifold surrounding said hot air inlet and a second heat exchanger manifold surrounding said hot air outlet ; and a shaped array of a shaped inlet and a shaped outlet, each of said shaped inlet and shaped outlet being configured to align vertices with thermal load directions responsive to a thermal expansion mismatch between the hot air inlet and hot air outlet and respective first heat exchanger manifold and second heat exchanger manifold , wherein said shaped hot air inlet comprises a star shaped hot air inlet and said shaped hot air outlet comprises a star shaped hot air outlet . a first heat exchanger manifold surrounding said hot air inlet and a second heat exchanger manifold surrounding said hot air outlet ; and a shaped array of a shaped inlet and a shaped outlet, each of said shaped inlet and shaped outlet being configured to align vertices with thermal load directions responsive to a thermal expansion mismatch between the hot air inlet and hot air outlet and respective first heat exchanger manifold and second heat exchanger manifold , wherein said shaped hot air inlet comprises a star shaped hot air inlet and said shaped hot air outlet comprises a star shaped hot air outlet .
A cable channel module for receiving at least a portion of a cable harness , the cable channel module comprising a cable supporting section having a base ; a first connector and a second connector disposed at opposite sides of the base ; wherein the first and second connectors are respective first and second components of an articulated link (30; 14", 16") that is configured to be moveable about two axes of rotation; the cable supporting section further comprising at least one, preferably two, fixing points , wherein the at least one fixing point is configured to receive fixing means , with the fixing means being adapted to fix a relative position between two cable channel modules connected to one another via the articulated link (30; 14", 16"), wherein the at least one fixing point is formed in a support arranged at the cable supporting section characterized in that the cable supporting section comprises two side members projecting from the base at two further sides of the base, with the at least one support being arranged at one of the side members , wherein two supports are provided with a respective support being formed at the respective side member .
An electrical contact element , which has a plurality of contact regions (2 1 , 2 2 ), with in each case a contact surface (3 1 , 3 2 ), comprising a basic body made of a first material and a coating made of a coating material applied to the entire basic body , wherein in at least one region of the basic body within at least one contact region (2 1 , 2 2 ) in each case the first material is removed and is replaced at least partially by a second material, wherein the coating material and the second material in each case have a higher electrical conductivity than the first material, wherein the coating material and the second material has a lower hardness than the first material.
A light sensor for detecting luminescence light received from a luminescent material, comprising: a bias regulator operable to deliver a bias voltage V b; a photodiode having a cathode connected to the bias regulator so that the photodiode is reversely biased by the delivered bias voltage V b , the photodiode being operable to deliver, in a photoconductive mode, a photocurrent intensity I p in response to received luminescence light in a given photodiode spectral range; an inverting transimpedance amplifier including an operational amplifier with a feedback resistor R f and a feedback capacitor C f mounted in parallel with the feedback resistor R f between an inverting input terminal and an output voltage terminal of the operational amplifier , the inverting input terminal of the operational amplifier being connected to an anode of the photodiode and operable to convert the delivered photocurrent intensity I p into an output voltage signal V out at the output voltage terminal ; characterized by further comprising a PNP bipolar junction transistor of which emitter E and base B are connected in parallel with said feedback resistor R f and feedback capacitor C f , with its base B connected to said output voltage terminal and its collector C grounded. a bias regulator operable to deliver a bias voltage V b; a photodiode having a cathode connected to the bias regulator so that the photodiode is reversely biased by the delivered bias voltage V b , the photodiode being operable to deliver, in a photoconductive mode, a photocurrent intensity I p in response to received luminescence light in a given photodiode spectral range; an inverting transimpedance amplifier including an operational amplifier with a feedback resistor R f and a feedback capacitor C f mounted in parallel with the feedback resistor R f between an inverting input terminal and an output voltage terminal of the operational amplifier , the inverting input terminal of the operational amplifier being connected to an anode of the photodiode and operable to convert the delivered photocurrent intensity I p into an output voltage signal V out at the output voltage terminal ; characterized by further comprising a PNP bipolar junction transistor of which emitter E and base B are connected in parallel with said feedback resistor R f and feedback capacitor C f , with its base B connected to said output voltage terminal and its collector C grounded.
Coated metal, the metal including metal and a coating formed on the metal, the coating comprising Si, P, and O, and at least one selected from the group consisting of Mg, Ca, Ba, Sr, Zn, Al, and Mn the coating comprising a compound having a NASICON-type crystal structure represented by the general formula M I M IV 2 (M V O 4 ) 3 , wherein, in the general formula M I M IV 2 (M V O 4 ) 3 , M I is at least one selected from the group consisting of Li, Na, K, 1/2Mg, 1/2Ca, 1/2Sr, and 1/4Zr, M IV is at least one selected from the group consisting of Zr, Ge, Ti, Hf, Cr+Na, Nb-Na, and Y+Na, and M V is at least one selected from the group consisting of P, As, and Si+Na.